Operator overloading allows operators like +, -, *, etc. to be redefined to work on user-defined types like classes. This is done by defining member functions for the operators. For example, to overload + to add two Distance objects, a member function Distance operator+(Distance) would be defined. Overloading operators allows user-defined types to be used in expressions like built-in types for a more natural interface. Some common operators that can be overloaded include arithmetic, relational, logical, and assignment operators. There are some restrictions like not changing operator precedence or number of operands.
The document discusses various operators in C++ including assignment operators, increment and decrement operators, logical operators, and the common mistake of confusing the equality operator (==) and the assignment operator (=).
It provides examples of how to use assignment operator abbreviations, preincrement and postincrement operators, logical operators like AND (&&), OR (||), and NOT (!) in conditions. It also demonstrates the different repetition structures like while, for, and do-while loops. Finally, it cautions about accidentally using the assignment operator instead of equality operator in conditions.
The document provides code examples to generate different patterns using loops in C++. It includes code to:
1. Generate patterns like A B C D E F G, A B C E F G, A B F G, A G using nested for loops.
2. Generate patterns like 1, 1 2, 1 2 3 using nested for loops.
3. Generate patterns like *, * *, * * * using for loops and whitespace formatting.
4. Generate patterns like 1, 121, 1331, 14641 using pow() function.
It also includes code for a class to generate different patterns based on user input, code to display numbers in octal, decimal and hexadecimal format,
The document contains examples demonstrating various object-oriented programming concepts in C++ including constructors, destructors, inheritance, polymorphism, operator overloading, templates, and more. Each example includes the code for a concept, the output of running the code, and a brief description.
Pratik Bakane C++ programs...............This are programs desingedby sy diploma student from Governement Polytecnic Thane.....programsare very easy alongwith coding andscreen shot of the output
The document contains code for several C++ programs that use functions to calculate factorials, sums of even and odd numbers, solutions to quadratic equations, averages, and combinations. Functions are implemented using for, while, do-while loops. Output examples are provided for sample inputs and calculations for each program.
#ifndef RATIONAL_H if this compiler macro is not defined #def.pdfexxonzone
#ifndef RATIONAL_H // if this compiler macro is not defined
#define RATIONAL_H // then define it so this file will not be processed again
#include \"stdafx.h\" // use only for Microsoft Visual Studio C++
#include
using namespace std;
class Rational
{
// Friend functions are actually declared outside the scope of the
// class but have the right to access public and private data and
// member function members that belong to the class. The friend
// function below gives the << operator for ostreams (including cout)
// the ability to output a Rational object by accessing its member data.
friend ostream &operator<< (ostream &out, Rational const &r);
public:
Rational(int num = 0, int denom = 1); // also provides default constructor
Rational add(Rational right);
Rational operator+ (Rational right); // + addition operator
Rational operator+= (Rational right); // += addition assignment operator
Rational operator- (Rational right); // + addition operator
Rational operator-= (Rational right); // += addition assignment operator
void display();
operator double() const; // convert Rational to double
private:
int numerator;
int denominator;
// helper functions are private and not accessible by the main program
int LCD(int v1, int v2);
Rational setRational(int n, int d);
};
#endif
#include \"stdafx.h\"
#include
#include \"Rational.h\"
using namespace std;
// By using the default parameter settings in Rational.h, this
// constructor also provides the default constructor Rational()
Rational::Rational(int num, int denom)
{
setRational(num, denom); // set numerator and denominator, reduce fraction, fix the sign
}
// Helper function to fix a zero denominator and fix the sign if denominator is negative
Rational Rational::setRational(int n, int d) // helper function
{
numerator = n;
denominator = d;
// if denominator == 0 then set it = 1
if (denominator == 0)
denominator = 1;
if (denominator < 0) // if denominator is neg, multiply num and denom by -1
{
numerator = -numerator; // fix sign of numerator +/-
denominator = -denominator; // denominator always +
}
int lcd = LCD(numerator, denominator);
if (denominator != 0)
{
numerator /= lcd;
denominator /= lcd;
}
return *this; // return the current object
}
// find the lowest common divisor using a recursive function
int Rational::LCD(int v1, int v2)
{
if (v2 == 0) return v1;
else return LCD(v2, v1%v2);
}
Rational Rational::add(Rational right)
{
int newNumerator;
int newDenominator;
newNumerator = numerator*right.denominator + right.numerator*denominator;
newDenominator = denominator * right.denominator;
// create a new Rational object and return it
return setRational(newNumerator, newDenominator);
}
// the operator+ method does the same thing as the add method
Rational Rational::operator+ (Rational right)
{
int newNumerator;
int newDenominator;
newNumerator = numerator*right.denominator + right.numerator*denominator;
newDenominator = denominator * right.denominator;
// create a new Rational object and return it
return .
The document contains details about overloading matrix operations for a MAT class of size MxN. It includes algorithms to accept matrix elements, overload operators like +, -, *, ^ to perform addition, subtraction, multiplication and power operations on MAT objects. It also verifies the matrix identity (A-B)^2 = A^2 + B^2 - 2*AB by calculating both sides and comparing the results using a condition. The program accepts elements for two matrices, performs the calculations and verifies if the identity holds true or false.
In object-oriented programming, a class is an extensible program-code-template for creating objects, providing initial values for state (member variables) and implementations of behavior (member functions or methods).
The document discusses functions in C++. It covers function prototypes, definitions, parameters, return types, and passing arguments to functions. Examples are provided of defining, declaring, calling functions, and common errors like missing return types or incorrect parameter types. Predefined functions from headers like sqrt() from cmath and rand() from cstdlib are also demonstrated.
Assignement of programming & problem solving ass.(3)Syed Umair
The document contains 3 code snippets that demonstrate recursion, array input and output, and array reversal. The first snippet uses recursion to output the series 2 4 6 8 10. The second takes 9 user inputs into an array, calculates the sum and product, and outputs both. The third takes input into an array of any size, then outputs the array in reverse order.
This document discusses operator overloading in C++. It begins by defining operator overloading as giving special meanings to operators for user-defined data types. It then covers overloading unary and binary operators using member functions and friend functions. Some key points include: only existing operators can be overloaded, binary operators take operands as arguments, and type conversions between basic and user-defined types require custom conversion routines like constructors or casting functions. The document also provides examples of overloading operators for complex numbers and strings.
/***********************************************************
Program Name: Simple Math Calculator
Program Author: Kyle NoCompile
Date Created: 9/28/14
Program Description:
This program performs simple arithmetic calculations.
The user enters numbers and the math operation to
perform on those numbers. The program will then display
the result of the operation. The program allows the
user to continue entering a math operation and an
integer to calculate off of the previous calculation
result.
Modified Date:
Modified Description:
***********************************************************/
#include <iostream>
using namespace std;
// Function prototypes:
void showWelcome(void);
int getUserIntegerInput();
char getMathChoice()
int getInteger(bool);
bool validateMathChoice(char choice)
int doAddition(int int1, int int2);
int doSubtraction(int, int);
int doMath(int firstInt, int secondInt, char mathFunc);
void showResult(int)
float keepCalculating();
// This is the main function (where the program begins)
int main(void)
{
// Variables to hold local data
int runningTotal; nextValue;
int mathChoice();
bool keepGoing;
// Call the showWelcome() function
showWelcome(void);
// Call the getInteger() function (for the first integer)
// and store the result in the "runningTotal" variable
runningTotal = GetInteger(true);
// Loop after each calculation to see if the user wants to keep going
do
{
// Call the getMathChoice() function and store result in "mathChoice" variable
mathChoice = getMathChoice(42);
// Call validateMathChoice() function, passing it the user's math choice
// and using the return value to decide what to do next
if (validateMathChoice())
{
// Call the getInteger() function (for the second and subsequent integers)
// and store the result in the "nextValue" variable
nextValue = getInteger(false);
// Call the doMath() function and pass it all of the user input
// and store the return value in the "runningTotal" variable (overwrite
// previous "runningTotal" variable value. This will allow for us to
// update the running total of all calculations up to this point.
runningTotal = doMath(runningTotal nextValue mathChoice);
// Call the showResult() function to show the result
showResult(runningTotal);
}
else
{
// If the user chose an invalid math function...
cout<<Not a valid math choice. Try again<<endl;
}
}
// Call the keepCalculating() function and use the return value
// to decide whether to continue looping
while (keepCalculating);
return 0;
}
// This function shows a nice welcome message
void showWelcome()
{
cout<<"******************************************"<<endl;
cout<<"Welcome to the simple calculator program!"<<endl;
cout<<"This program will do simple addition and"<<endl
cout<<"subtraction. Math is fun, so enjoy!"<<endl;
cout<<"**.
1. Pointers allow variables to store the address of other variables in memory. The & operator returns the address of a variable, which can be assigned to a pointer variable. Pointer variables are strongly typed based on the data type they point to.
2. The * operator dereferences a pointer to access or modify the variable being pointed to. Assigning a value to a dereferenced pointer modifies the original variable. Pointers can be assigned to each other as long as they point to compatible types.
3. Dynamic memory allocation with new creates objects in heap memory that persist until deleted. new returns a pointer to the new object. delete removes an object from the heap. Dangling pointers occur after deleting a
The document contains code for implementing various heap and binomial coefficient algorithms using recursion removal rules. It includes programs for:
1) Max and min heap insertion that builds the heap by inserting elements one by one
2) Max and min heap construction using heapify to adjust the heap property bottom-up
3) Binomial coefficient calculation using recursion removal
4) Heap sort that implements the sort by building a max heap and repeatedly extracting elements.
This document contains 10 programs written in C++ to solve various algorithms problems using concepts like GCD, LCM, maximum element, binary search, binomial coefficient, heap operations, and heap sort. The programs demonstrate removing recursion using stacks and implementing the algorithms iteratively with loops and conditional statements. Test inputs and outputs are provided for each program.
This document contains the code solutions to 6 questions on structured programming techniques in C++. It demonstrates the use of different loop structures like while and for loops to calculate the area and perimeter of a rectangle, convert inches to centimeters, determine if a user is a child, adult or senior citizen based on age, calculate factorials of a given number, find the sum of first N natural numbers, and calculate the sum of squares of a given number. For each question, multiple solutions using different loop types are provided along with sample outputs.
Pointers in c++ programming presentationSourabhGour9
The document discusses pointers in C++. It defines a pointer as a variable that holds the memory address of another variable. It provides examples of declaring and accessing variables using pointers, and demonstrates how to use pointers to change variable values, find the sum of array elements, calculate the square of a number, and swap two numbers. It also explains the difference between call by value and call by reference, and provides examples of functions that swap numbers using each approach.
- The document describes the process of compiling an ONNX model to XCVM using the Chainer compiler. It involves parsing the ONNX model, applying optimization passes like fusion and constant propagation, lowering it to an XCVM program, and then executing the program on XCVM to run the model.
- The compiler represents the model as a Model object containing a Graph. Nodes in the graph are represented by Node objects. Values are represented by Value objects. Tensor data is stored in Tensor objects.
- The XCVM execution engine takes the compiled XCVM program and runs it, interpreting each XCVM operation by calling methods on classes like ConvOp that implement the operations.
This document contains code snippets from a student's practical work using Microsoft Visual Studio C++. It includes 15 code modules that demonstrate basics of C++ programming like input/output, data types, operators, conditional statements and functions. The modules progress from simple print statements to more complex concepts like nested if-else statements and switch cases. Each module is preceded by comments identifying the topic and module number.
Modify the Time classattached to be able to work with Date.pdfaaseletronics2013
Modify the Time class(attached) to be able to work with Date class. The Time object should
always remain in a consistent state.
Modify the Date class(attached) to include a Time class object as a composition, a tick member
function that increments the time stored in a Date object by one second, and increaseADay
function to increase day, month and year when it is proper. Please use CISP400V10A4.cpp that
tests the tick member function in a loop that prints the time in standard format during iteration of
the loop to illustrate that the tick member function works correctly. Be aware that we are testing
the following cases:
a) Incrementing into the next minute.
b) Incrementing into the next hour.
c) Incrementing into the next day (i.e., 11:59:59 PM to 12:00:00 AM).
d) Incrementing into the next month and next year.
You can adjust only programs (Date.cpp, Date.h, Time.cpp and Time.h) to generate the
required result but not the code in CISP400V10A4.cpp file.
Expecting results:
// Date.cpp
// Date class member-function definitions.
#include <array>
#include <string>
#include <iostream>
#include <stdexcept>
#include "Date.h" // include Date class definition
using namespace std;
// constructor confirms proper value for month; calls
// utility function checkDay to confirm proper value for day
Date::Date(int mn, int dy, int yr, Time time)
: time01(time)
{
if (mn > 0 && mn <= monthsPerYear) // validate the month
month = mn;
else
throw invalid_argument("month must be 1-12");
year = yr; // could validate yr
day = checkDay(dy); // validate the day
// output Date object to show when its constructor is called
cout << "Date object constructor for date ";
print();
cout << endl;
} // end Date constructor
// print Date object in form month/day/year
void Date::print() const
{
cout << month << '/' << day << '/' << year;
cout << "t";
time01.printStandard();
cout << "t";
time01.printUniversal();
cout << "n";
} // end function print
// output Date object to show when its destructor is called
Date::~Date()
{
cout << "Date object destructor for date ";
print();
cout << endl;
} // end ~Date destructor
// utility function to confirm proper day value based on
// month and year; handles leap years, too
unsigned int Date::checkDay(int testDay) const
{
static const array< int, monthsPerYear + 1 > daysPerMonth =
{ 0, 31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31 };
// determine whether testDay is valid for specified month
if (testDay > 0 && testDay <= daysPerMonth[month])
{
return testDay;
} // end if
// February 29 check for leap year
if (month == 2 && testDay == 29 && (year % 400 == 0 || (year % 4 == 0 && year
% 100 != 0)))
{
return testDay;
} // end if
cout << "day (" << testDay << ") set to 1." << endl;
return 1;
} // end function checkDay
// adjust data if day is not proper
void Date::increaseADay()
{
day = checkDay(day + 1);
if (day == 1) // if day wasn't accurate, its value is one
{
month = month + 1; // increase month by 1
if (month > 0 && month >= monthsPerYear) // if.
Study in Pink (forensic case study of Death)memesologiesxd
A forensic case study to solve a mysterious death crime based on novel Sherlock Homes.
including following roles,
- Evidence Collector
- Cameraman
- Medical Examiner
- Detective
- Police officer
Enjoy the Show... ;)
Euclid: The Story So far, a Departmental Colloquium at Maynooth UniversityPeter Coles
The European Space Agency's Euclid satellite was launched on 1st July 2023 and, after instrument calibration and performance verification, the main cosmological survey is now well under way. In this talk I will explain the main science goals of Euclid, give a brief summary of progress so far, showcase some of the science results already obtained, and set out the time line for future developments, including the main data releases and cosmological analysis.
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Similar to Mastering Operator Overloading in C++... (20)
The document contains code for several C++ programs that use functions to calculate factorials, sums of even and odd numbers, solutions to quadratic equations, averages, and combinations. Functions are implemented using for, while, do-while loops. Output examples are provided for sample inputs and calculations for each program.
#ifndef RATIONAL_H if this compiler macro is not defined #def.pdfexxonzone
#ifndef RATIONAL_H // if this compiler macro is not defined
#define RATIONAL_H // then define it so this file will not be processed again
#include \"stdafx.h\" // use only for Microsoft Visual Studio C++
#include
using namespace std;
class Rational
{
// Friend functions are actually declared outside the scope of the
// class but have the right to access public and private data and
// member function members that belong to the class. The friend
// function below gives the << operator for ostreams (including cout)
// the ability to output a Rational object by accessing its member data.
friend ostream &operator<< (ostream &out, Rational const &r);
public:
Rational(int num = 0, int denom = 1); // also provides default constructor
Rational add(Rational right);
Rational operator+ (Rational right); // + addition operator
Rational operator+= (Rational right); // += addition assignment operator
Rational operator- (Rational right); // + addition operator
Rational operator-= (Rational right); // += addition assignment operator
void display();
operator double() const; // convert Rational to double
private:
int numerator;
int denominator;
// helper functions are private and not accessible by the main program
int LCD(int v1, int v2);
Rational setRational(int n, int d);
};
#endif
#include \"stdafx.h\"
#include
#include \"Rational.h\"
using namespace std;
// By using the default parameter settings in Rational.h, this
// constructor also provides the default constructor Rational()
Rational::Rational(int num, int denom)
{
setRational(num, denom); // set numerator and denominator, reduce fraction, fix the sign
}
// Helper function to fix a zero denominator and fix the sign if denominator is negative
Rational Rational::setRational(int n, int d) // helper function
{
numerator = n;
denominator = d;
// if denominator == 0 then set it = 1
if (denominator == 0)
denominator = 1;
if (denominator < 0) // if denominator is neg, multiply num and denom by -1
{
numerator = -numerator; // fix sign of numerator +/-
denominator = -denominator; // denominator always +
}
int lcd = LCD(numerator, denominator);
if (denominator != 0)
{
numerator /= lcd;
denominator /= lcd;
}
return *this; // return the current object
}
// find the lowest common divisor using a recursive function
int Rational::LCD(int v1, int v2)
{
if (v2 == 0) return v1;
else return LCD(v2, v1%v2);
}
Rational Rational::add(Rational right)
{
int newNumerator;
int newDenominator;
newNumerator = numerator*right.denominator + right.numerator*denominator;
newDenominator = denominator * right.denominator;
// create a new Rational object and return it
return setRational(newNumerator, newDenominator);
}
// the operator+ method does the same thing as the add method
Rational Rational::operator+ (Rational right)
{
int newNumerator;
int newDenominator;
newNumerator = numerator*right.denominator + right.numerator*denominator;
newDenominator = denominator * right.denominator;
// create a new Rational object and return it
return .
The document contains details about overloading matrix operations for a MAT class of size MxN. It includes algorithms to accept matrix elements, overload operators like +, -, *, ^ to perform addition, subtraction, multiplication and power operations on MAT objects. It also verifies the matrix identity (A-B)^2 = A^2 + B^2 - 2*AB by calculating both sides and comparing the results using a condition. The program accepts elements for two matrices, performs the calculations and verifies if the identity holds true or false.
In object-oriented programming, a class is an extensible program-code-template for creating objects, providing initial values for state (member variables) and implementations of behavior (member functions or methods).
The document discusses functions in C++. It covers function prototypes, definitions, parameters, return types, and passing arguments to functions. Examples are provided of defining, declaring, calling functions, and common errors like missing return types or incorrect parameter types. Predefined functions from headers like sqrt() from cmath and rand() from cstdlib are also demonstrated.
Assignement of programming & problem solving ass.(3)Syed Umair
The document contains 3 code snippets that demonstrate recursion, array input and output, and array reversal. The first snippet uses recursion to output the series 2 4 6 8 10. The second takes 9 user inputs into an array, calculates the sum and product, and outputs both. The third takes input into an array of any size, then outputs the array in reverse order.
This document discusses operator overloading in C++. It begins by defining operator overloading as giving special meanings to operators for user-defined data types. It then covers overloading unary and binary operators using member functions and friend functions. Some key points include: only existing operators can be overloaded, binary operators take operands as arguments, and type conversions between basic and user-defined types require custom conversion routines like constructors or casting functions. The document also provides examples of overloading operators for complex numbers and strings.
/***********************************************************
Program Name: Simple Math Calculator
Program Author: Kyle NoCompile
Date Created: 9/28/14
Program Description:
This program performs simple arithmetic calculations.
The user enters numbers and the math operation to
perform on those numbers. The program will then display
the result of the operation. The program allows the
user to continue entering a math operation and an
integer to calculate off of the previous calculation
result.
Modified Date:
Modified Description:
***********************************************************/
#include <iostream>
using namespace std;
// Function prototypes:
void showWelcome(void);
int getUserIntegerInput();
char getMathChoice()
int getInteger(bool);
bool validateMathChoice(char choice)
int doAddition(int int1, int int2);
int doSubtraction(int, int);
int doMath(int firstInt, int secondInt, char mathFunc);
void showResult(int)
float keepCalculating();
// This is the main function (where the program begins)
int main(void)
{
// Variables to hold local data
int runningTotal; nextValue;
int mathChoice();
bool keepGoing;
// Call the showWelcome() function
showWelcome(void);
// Call the getInteger() function (for the first integer)
// and store the result in the "runningTotal" variable
runningTotal = GetInteger(true);
// Loop after each calculation to see if the user wants to keep going
do
{
// Call the getMathChoice() function and store result in "mathChoice" variable
mathChoice = getMathChoice(42);
// Call validateMathChoice() function, passing it the user's math choice
// and using the return value to decide what to do next
if (validateMathChoice())
{
// Call the getInteger() function (for the second and subsequent integers)
// and store the result in the "nextValue" variable
nextValue = getInteger(false);
// Call the doMath() function and pass it all of the user input
// and store the return value in the "runningTotal" variable (overwrite
// previous "runningTotal" variable value. This will allow for us to
// update the running total of all calculations up to this point.
runningTotal = doMath(runningTotal nextValue mathChoice);
// Call the showResult() function to show the result
showResult(runningTotal);
}
else
{
// If the user chose an invalid math function...
cout<<Not a valid math choice. Try again<<endl;
}
}
// Call the keepCalculating() function and use the return value
// to decide whether to continue looping
while (keepCalculating);
return 0;
}
// This function shows a nice welcome message
void showWelcome()
{
cout<<"******************************************"<<endl;
cout<<"Welcome to the simple calculator program!"<<endl;
cout<<"This program will do simple addition and"<<endl
cout<<"subtraction. Math is fun, so enjoy!"<<endl;
cout<<"**.
1. Pointers allow variables to store the address of other variables in memory. The & operator returns the address of a variable, which can be assigned to a pointer variable. Pointer variables are strongly typed based on the data type they point to.
2. The * operator dereferences a pointer to access or modify the variable being pointed to. Assigning a value to a dereferenced pointer modifies the original variable. Pointers can be assigned to each other as long as they point to compatible types.
3. Dynamic memory allocation with new creates objects in heap memory that persist until deleted. new returns a pointer to the new object. delete removes an object from the heap. Dangling pointers occur after deleting a
The document contains code for implementing various heap and binomial coefficient algorithms using recursion removal rules. It includes programs for:
1) Max and min heap insertion that builds the heap by inserting elements one by one
2) Max and min heap construction using heapify to adjust the heap property bottom-up
3) Binomial coefficient calculation using recursion removal
4) Heap sort that implements the sort by building a max heap and repeatedly extracting elements.
This document contains 10 programs written in C++ to solve various algorithms problems using concepts like GCD, LCM, maximum element, binary search, binomial coefficient, heap operations, and heap sort. The programs demonstrate removing recursion using stacks and implementing the algorithms iteratively with loops and conditional statements. Test inputs and outputs are provided for each program.
This document contains the code solutions to 6 questions on structured programming techniques in C++. It demonstrates the use of different loop structures like while and for loops to calculate the area and perimeter of a rectangle, convert inches to centimeters, determine if a user is a child, adult or senior citizen based on age, calculate factorials of a given number, find the sum of first N natural numbers, and calculate the sum of squares of a given number. For each question, multiple solutions using different loop types are provided along with sample outputs.
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The document discusses pointers in C++. It defines a pointer as a variable that holds the memory address of another variable. It provides examples of declaring and accessing variables using pointers, and demonstrates how to use pointers to change variable values, find the sum of array elements, calculate the square of a number, and swap two numbers. It also explains the difference between call by value and call by reference, and provides examples of functions that swap numbers using each approach.
- The document describes the process of compiling an ONNX model to XCVM using the Chainer compiler. It involves parsing the ONNX model, applying optimization passes like fusion and constant propagation, lowering it to an XCVM program, and then executing the program on XCVM to run the model.
- The compiler represents the model as a Model object containing a Graph. Nodes in the graph are represented by Node objects. Values are represented by Value objects. Tensor data is stored in Tensor objects.
- The XCVM execution engine takes the compiled XCVM program and runs it, interpreting each XCVM operation by calling methods on classes like ConvOp that implement the operations.
This document contains code snippets from a student's practical work using Microsoft Visual Studio C++. It includes 15 code modules that demonstrate basics of C++ programming like input/output, data types, operators, conditional statements and functions. The modules progress from simple print statements to more complex concepts like nested if-else statements and switch cases. Each module is preceded by comments identifying the topic and module number.
Modify the Time classattached to be able to work with Date.pdfaaseletronics2013
Modify the Time class(attached) to be able to work with Date class. The Time object should
always remain in a consistent state.
Modify the Date class(attached) to include a Time class object as a composition, a tick member
function that increments the time stored in a Date object by one second, and increaseADay
function to increase day, month and year when it is proper. Please use CISP400V10A4.cpp that
tests the tick member function in a loop that prints the time in standard format during iteration of
the loop to illustrate that the tick member function works correctly. Be aware that we are testing
the following cases:
a) Incrementing into the next minute.
b) Incrementing into the next hour.
c) Incrementing into the next day (i.e., 11:59:59 PM to 12:00:00 AM).
d) Incrementing into the next month and next year.
You can adjust only programs (Date.cpp, Date.h, Time.cpp and Time.h) to generate the
required result but not the code in CISP400V10A4.cpp file.
Expecting results:
// Date.cpp
// Date class member-function definitions.
#include <array>
#include <string>
#include <iostream>
#include <stdexcept>
#include "Date.h" // include Date class definition
using namespace std;
// constructor confirms proper value for month; calls
// utility function checkDay to confirm proper value for day
Date::Date(int mn, int dy, int yr, Time time)
: time01(time)
{
if (mn > 0 && mn <= monthsPerYear) // validate the month
month = mn;
else
throw invalid_argument("month must be 1-12");
year = yr; // could validate yr
day = checkDay(dy); // validate the day
// output Date object to show when its constructor is called
cout << "Date object constructor for date ";
print();
cout << endl;
} // end Date constructor
// print Date object in form month/day/year
void Date::print() const
{
cout << month << '/' << day << '/' << year;
cout << "t";
time01.printStandard();
cout << "t";
time01.printUniversal();
cout << "n";
} // end function print
// output Date object to show when its destructor is called
Date::~Date()
{
cout << "Date object destructor for date ";
print();
cout << endl;
} // end ~Date destructor
// utility function to confirm proper day value based on
// month and year; handles leap years, too
unsigned int Date::checkDay(int testDay) const
{
static const array< int, monthsPerYear + 1 > daysPerMonth =
{ 0, 31, 28, 31, 30, 31, 30, 31, 31, 30, 31, 30, 31 };
// determine whether testDay is valid for specified month
if (testDay > 0 && testDay <= daysPerMonth[month])
{
return testDay;
} // end if
// February 29 check for leap year
if (month == 2 && testDay == 29 && (year % 400 == 0 || (year % 4 == 0 && year
% 100 != 0)))
{
return testDay;
} // end if
cout << "day (" << testDay << ") set to 1." << endl;
return 1;
} // end function checkDay
// adjust data if day is not proper
void Date::increaseADay()
{
day = checkDay(day + 1);
if (day == 1) // if day wasn't accurate, its value is one
{
month = month + 1; // increase month by 1
if (month > 0 && month >= monthsPerYear) // if.
Study in Pink (forensic case study of Death)memesologiesxd
A forensic case study to solve a mysterious death crime based on novel Sherlock Homes.
including following roles,
- Evidence Collector
- Cameraman
- Medical Examiner
- Detective
- Police officer
Enjoy the Show... ;)
Euclid: The Story So far, a Departmental Colloquium at Maynooth UniversityPeter Coles
The European Space Agency's Euclid satellite was launched on 1st July 2023 and, after instrument calibration and performance verification, the main cosmological survey is now well under way. In this talk I will explain the main science goals of Euclid, give a brief summary of progress so far, showcase some of the science results already obtained, and set out the time line for future developments, including the main data releases and cosmological analysis.
This PowerPoint offers a basic idea about Plant Secondary Metabolites and their role in human health care systems. It also offers an idea of how the secondary metabolites are synthesised in plants and are used as pharmacologically active constituents in herbal medicines
Eric Schott- Environment, Animal and Human Health (3).pptxttalbert1
Baltimore’s Inner Harbor is getting cleaner. But is it safe to swim? Dr. Eric Schott and his team at IMET are working to answer that question. Their research looks at how sewage and bacteria get into the water — and how to track it.
Issues in using AI in academic publishing.pdfAngelo Salatino
In this slide deck is a lecture I held at the Open University for PhD students to educated them about the dark side of science: predatory journals, paper mills, misconduct, retractrions and much more.
Animal Models for Biological and Clinical Research ppt 2.pptxMahitaLaveti
This presentation provides an in-depth overview of the pivotal role animal models play in advancing both basic biological understanding and clinical research. It covers the selection and classification of animal models—ranging from invertebrates to rodents and higher mammals—and their applications in studying human physiology, disease mechanisms, drug development, and toxicology. Special emphasis is placed on the use of genetically modified models, patient-derived xenografts (PDX), and disease-specific models in cancer, neuroscience, infectious diseases, and metabolic disorders. The talk also addresses ethical considerations, regulatory guidelines, and the principles of the 3Rs (Replacement, Reduction, and Refinement) in animal research
This presentation explores the application of Discrete Choice Experiments (DCEs) to evaluate public preferences for environmental enhancements to Airthrey Loch, a freshwater lake located on the University of Stirling campus. The study aims to identify the most valued ecological and recreational improvements—such as water quality, biodiversity, and access facilities by analyzing how individuals make trade-offs among various attributes. The results provide insights for policy-makers and campus planners to design sustainable and community-preferred interventions. This work bridges environmental economics and conservation strategy using empirical, choice-based data analysis.
Antimalarial drug Medicinal Chemistry IIIHRUTUJA WAGH
Antimalarial drugs
Malaria can occur if a mosquito infected with the Plasmodium parasite bites you.
There are four kinds of malaria parasites that can infect humans: Plasmodium vivax, P. ovale, P. malariae, and P. falciparum. - P. falciparum causes a more severe form of the disease and those who contract this form of malaria have a higher risk of death.
An infected mother can also pass the disease to her baby at birth. This is known as congenital malaria.
Malaria is transmitted to humans by female mosquitoes of the genus Anopheles.
Female mosquitoes take blood meals for egg production, and these blood meals are the link between the human and the mosquito hosts in the parasite life cycle.
Whereas, Culicine mosquitoes such as Aedes spp. and Culex spp. are important vectors of other human pathogens including viruses and filarial worms, but have never been observed to transmit mammalian malarias.
Malaria is transmitted by blood, so it can also be transmitted through: (i) an organ transplant; (ii) a transfusion; (iii) use of shared needles or syringes.
Here's a comprehensive overview of **Antimalarial Drugs** including their **classification**, **mechanism of action (MOA)**, **structure-activity relationship (SAR)**, **uses**, and **side effects**—ideal for use in your **SlideShare PPT**:
---
## 🦠 **ANTIMALARIAL DRUGS OVERVIEW**
---
### ✅ **1. Classification of Antimalarial Drugs**
#### **A. Based on Stage of Action:**
* **Tissue Schizonticides**: Primaquine
* **Blood Schizonticides**: Chloroquine, Artemisinin, Mefloquine
* **Gametocytocides**: Primaquine, Artemisinin
* **Sporontocides**: Pyrimethamine
#### **B. Based on Chemical Class:**
| Class | Examples |
| ----------------------- | ------------------------ |
| 4-Aminoquinolines | Chloroquine, Amodiaquine |
| 8-Aminoquinolines | Primaquine, Tafenoquine |
| Artemisinin Derivatives | Artesunate, Artemether |
| Quinoline-methanols | Mefloquine |
| Biguanides | Proguanil |
| Sulfonamides | Sulfadoxine |
| Antibiotics | Doxycycline, Clindamycin |
| Naphthoquinones | Atovaquone |
---
### ⚙️ **2. Mechanism of Action (MOA)**
| Drug/Class | MOA |
| ----------------- | ----------------------------------------------------------------------- |
| **Chloroquine** | Inhibits heme polymerization → toxic heme accumulation → parasite death |
| **Artemisinin** | Generates free radicals → damages parasite proteins |
| **Primaquine** | Disrupts mitochondrial function in liver stages |
| **Mefloquine** | Disrupts heme detoxification pathway |
| **Atovaquone** | Inhibits mitochondrial electron transport |
| **Pyrimethamine** | Inhibits dihydrofolate reductase (
Preclinical Advances in Nuclear Neurology.pptxMahitaLaveti
This presentation explores the latest preclinical advancements in nuclear neurology, emphasizing how molecular imaging techniques are transforming our understanding of neurological diseases at the earliest stages. It highlights the use of radiotracers, such as technetium-99m and fluorine-18, in imaging neuroinflammation, amyloid deposition, and blood-brain barrier (BBB) integrity using modalities like SPECT and PET in small animal models. The talk delves into the development of novel biomarkers, advances in radiopharmaceutical chemistry, and the integration of imaging with therapeutic evaluation in models of Alzheimer’s disease, Parkinson’s disease, stroke, and brain tumors. The session aims to bridge the gap between bench and bedside by showcasing how preclinical nuclear imaging is driving innovation in diagnosis, disease monitoring, and targeted therapy in neurology.
An upper limit to the lifetime of stellar remnants from gravitational pair pr...Sérgio Sacani
Black holes are assumed to decay via Hawking radiation. Recently we found evidence that spacetime curvature alone without the need for an event horizon leads to black hole evaporation. Here we investigate the evaporation rate and decay time of a non-rotating star of constant density due to spacetime curvature-induced pair production and apply this to compact stellar remnants such as neutron stars and white dwarfs. We calculate the creation of virtual pairs of massless scalar particles in spherically symmetric asymptotically flat curved spacetimes. This calculation is based on covariant perturbation theory with the quantum f ield representing, e.g., gravitons or photons. We find that in this picture the evaporation timescale, τ, of massive objects scales with the average mass density, ρ, as τ ∝ ρ−3/2. The maximum age of neutron stars, τ ∼ 1068yr, is comparable to that of low-mass stellar black holes. White dwarfs, supermassive black holes, and dark matter supercluster halos evaporate on longer, but also finite timescales. Neutron stars and white dwarfs decay similarly to black holes, ending in an explosive event when they become unstable. This sets a general upper limit for the lifetime of matter in the universe, which in general is much longer than the HubbleLemaˆ ıtre time, although primordial objects with densities above ρmax ≈ 3×1053 g/cm3 should have dissolved by now. As a consequence, fossil stellar remnants from a previous universe could be present in our current universe only if the recurrence time of star forming universes is smaller than about ∼ 1068years.
Applications of Radioisotopes in Cancer Research.pptxMahitaLaveti
:
This presentation explores the diverse and impactful applications of radioisotopes in cancer research, spanning from early detection to therapeutic interventions. It covers the principles of radiotracer development, radiolabeling techniques, and the use of isotopes such as technetium-99m, fluorine-18, iodine-131, and lutetium-177 in molecular imaging and radionuclide therapy. Key imaging modalities like SPECT and PET are discussed in the context of tumor detection, staging, treatment monitoring, and evaluation of tumor biology. The talk also highlights cutting-edge advancements in theranostics, the use of radiolabeled antibodies, and biodistribution studies in preclinical cancer models. Ethical and safety considerations in handling radioisotopes and their translational significance in personalized oncology are also addressed. This presentation aims to showcase how radioisotopes serve as indispensable tools in advancing cancer diagnosis, research, and targeted treatment.
Freshwater Biome Classification
Types
- Ponds and lakes
- Streams and rivers
- Wetlands
Characteristics and Groups
Factors such as temperature, sunlight, oxygen, and nutrients determine which organisms live in which area of the water.
13. Distance Distance::operator + (Distance d2) //return sum
{
int f = feet + d2.feet; //add the feet
float i = inches + d2.inches; //add the inches
if(i >= 12.0) //if total exceeds 12.0,
{ //then decrease inches
i -= 12.0; //by 12.0 and
f++; //increase feet by 1
} //return a temporary Distance
return Distance(f,i); //initialized to sum
}
Overloading Binary Operators
14. int main()
{
Distance dist1, dist3; //define distances
dist1.getdist(); //get dist1 from user
Distance dist2(11, 6.25); //define, initialize dist2
dist3 = dist1 + dist2; //single ‘+’ operator
//display all lengths
cout << “dist1 = “; dist1.showdist(); cout << endl;
cout << “dist2 = “; dist2.showdist(); cout << endl;
cout << “dist3 = “; dist3.showdist(); cout << endl;
return 0;
}
Overloading Binary Operators
Output
Enter feet: 10
Enter inches: 6.5
dist1 = 10’-6.5” ← from user
dist2 = 11’-6.25” ← initialized in program
dist3 = 22’-0.75” ← dist1+dist2
17. Operator overloading restrictions
• The following operators cannot be overloaded
– the member access or dot operator (.)
– the scope resolution operator (::)
– the conditional operator (?:)
– the pointer-to-member operator (->)
• One can’t create new operators ,only existing
operators can be overloaded