This project contains implementations of various data structures in C++, including:
- Array-Based List
- Single Linked List
- Doubly Linked List
- Circular Linked List
- Stack
- Queue
Each data structure has its own set of methods that can be used to interact with the structure. Additionally, there are several problems included that can be solved using these data structures.
The Array-Based List implementation includes the following methods:
insert(elementType element): void
insertAt(elementType element, int index): void
retrieveAt(int index): elementType
removeAt(int index): void
replaceAt(elementType newElement, int index)
isItemAtEqual(elementType element, int index): bool
isEmpty(): bool
isFull(): bool
listSize(): int
maxListSize(): int
clear(): void
print(): void
The Single Linked List implementation includes the following methods:
insertAtHead(elementType element): void
insertAtTail(elementType element): void
insertAt(elementType element, int index): void
removeAtHead(): void
removeAtTail(): void
removeAt(int index): void
retrieveAt(int index): elementType
replaceAt(elementType newElement, int index)
isExist(elementType element): bool
isItemAtEqual(elementType element, int index): bool
swap(int firstItemIdx, int secondItemIdx): void
(swap two nodes without swapping data)isEmpty(): bool
linkedListSize(): int
clear(): void
print(): void
The Doubly Linked List implementation includes the following methods:
insertAtHead(elementType element): void
insertAtTail(elementType element): void
insertAt(elementType element, int index): void
insertAfter(* prev_node, int data): void
removeAtHead(): void
removeAtTail(): void
removeAt(int index): void
retrieveAt(int index): elementType
replaceAt(elementType newElement, int index)
isExist(elementType element): bool
isItemAtEqual(elementType element, int index): bool
swap(int firstItemIdx, int secondItemIdx): void
(swap two nodes without swapping data)reverse(): void
(reverse the data in the double linked list)isEmpty(): bool
doubleLinkedListSize(): int
clear(): void
forwardTraversal(): void
(Print from head to tail)backwardTraversal(): void
(Print from tail to head)
The Circular Linked List implementation includes the following methods:
insertAtHead(elementType element): void
insertAtEnd(elementType element): void
insertAt(elementType element, int index): void
removeAtHead(): void
removeAtEnd(): void
removeAt(int index): void
retrieveAt(int index): elementType
replaceAt(elementType newElement, int index)
isExist(elementType element): bool
isItemAtEqual(elementType element, int index): bool
swap(int firstItemIdx, int secondItemIdx): void
(swap two nodes without swapping data)isEmpty(): bool
circularLinkedListSize(): int
clear(): void
print(): void
The Stack implementation includes the following methods:
push(elementType element): void
pop(): void
top(): elementType
isEmpty(): bool
isFull(): bool
stackSize(): int
The Queue implementation includes the following methods:
enqueue(elementType element): void
dequeue(): void
front(): elementType
isEmpty(): bool
isFull(): bool
queueSize(): int
This project includes several problems that can be solved using the implemented data structures. These problems are:
Given a linked list containing a sequence of integers separated by 0s, merge all nodes between any two consecutive 0s into a single node whose value is the total of all the merged nodes. There are no two consecutive nodes with value == 0. There should be no 0s in the new list.
Given k linked-lists, each linked-list is sorted in ascending order, merge all the linked-lists into one sorted linked-list.
Given a string representing an infix expression, convert it to postfix expression.
Given a string containing the characters '(' and ')', return the length of the longest valid (well-formed) parentheses substring.
Write a function that generates and prints all binary integers from 1 to N.
Implement a stack that supports push and pop operations using the enqueue and dequeue operations of the queue. You can use one or more queues.
Given a queue with random integer elements, sort it.