The answer is option B "more information about the subject." Supporting details are used to support your argument in your essay, so you have more faces, and information in order to make a strong argument. Supporting details do indeed make your paragraph bigger but that's not the reason why they are used. Supporting details help you prove your claim and defend your argument against people who think the opposite way of your claim.
Hope this helps!
Answer:
See explaination
Explanation:
class OurLinkedList<E> { // The head is the first node of the LinkedList private Node<E> head; /** * No argument constructor, as mentioned in question to initialize the head pointer with null */ public OurLinkedList() { head=null; } public void addFront(E e) { if(head==null) { head=new Node<E>(e);//forgot <E> } else { Node<E> temp=head; Node<E> n=new Node<E>(e); //forgot <E> n.setNext(temp); head=n; } } /* * The add(E data) method add the node to the end of the linked List, It first checks if the Linked List is empty or not >> If the * Linked list is not empty then, * the temp pointer traverses to the end of the linked List and inserts a new Node with data that is * passes as argument at the end of the linked List * */ public void add(E data) { if(head == null) { return; } Node<E> temp = head; Node<E> nodeToAdd = new Node<>(data); /* Moving temp pointer to end of the linked list where next pointer is null */ while(temp.getNext() != null) { temp.setNext(temp.getNext()); } // adding nodeToadd to the end of the linked List temp.setNext(nodeToAdd); } /** * This method checks if the head of the Linked List is null it returns TRUE otherwise it return FALSE */ public boolean isEmpty() { if(head==null) { return true; } return false; } /** * the method remove, removes the first node of the list. If the list is empty is does nothing, if the List is not empty * then it removes the first element of the linked List. */ public void remove() { if (!isEmpty()) { Node<E> toRemoved = head; head = head.getNext(); toRemoved.setNext(null); } } /** * the size() method returns the size of the Linked List, * this method calculates the size of the linkedList by traversing through each node and incrementing the * length variable value */ public int size() { int length = 0; Node<E> current = head; while (current != null) { current = current.getNext(); length++; } return length; } public String toString() { if(isEmpty()) { return "head ==> null"; } Node<E> temp=head; String s="head ==> "; while(temp!=null) { s+=temp.getData()+" ==> "; temp=temp.getLink(); } s+=" null"; return s; } /* method to reverse the Linked List */ Node<E> reverse() { Node<E> prev = null; Node<E> current = head; Node<E> next = null; while (current != null) { next = current.getNext(); current.setNext(prev); prev = current; current = next; } head = prev; return head; } }
Node.java
/* this file contains the Implementation of Node class, * Node class contains if pointer of Node type which points to next Node * and a variable to hold the data */ public class Node<E> { private E data; private Node<E> next; public Node(E data) { this.data = data; next = null; } public void setNext(Node<E> next) { this.next=next; } public Node<E> getLink() { return next; } public E getData() { return data; } public void setData(E data) { this.data = data; } public Node<E> getNext() { return next; } }
Main.java <Contains the drive code for the program>
/* This class is the driver class of the program, this file contains the * code which checks the working of other components of the program * */ public class Main { public static void main(String[] args) { OurLinkedList<Integer> llist=new OurLinkedList<Integer>(); // checking if linked list id empty System.out.println("is empty: "+llist.isEmpty()); // after adding first element to list llist.addFront(10); System.out.println("is empty: "+llist.isEmpty()); // adding more elements to th elist llist.addFront(20); llist.addFront(30); llist.addFront(40); // printing the list using toString() method System.out.println("\n\nBefore Reversing the list:\n"+llist.toString()); // calling the reverse method llist.reverse(); System.out.println("\n\nAfter Reversing the list:\n"+llist.toString());
}
}
Answer:
256.
Explanation:
In Computer science, a bit is a short word for the term binary digit and is primarily the basic (smallest) unit measurement of data or information.
A bit is a logical state which represents a single binary value of either one (1) or zero (0). This ultimately implies that, a single bit in computer science represents a boolean value of;
1. True or ON, which is equal to one (1).
2. False or OFF, which is equal to zero (0).
Additionally, a binary numbering represents all numeric values that are to be written in sequences of ones (1s) and zeroes (0s). Therefore, a binary number refers to any numerical value (number) that is expressed in base-2 numerical system; 0s and 1s.
Also, the total numbers which can be represented with an 8 bit binary (base-2) system is 256.
Mathematically, it is given by the equation;
Given that n = 8
The primary criticism against a national identification system based on biometric data are privacy and security risks. Biometric data are distinctive, measurable chatracteristics used to identify, label and describe individuals. But Biometric security poses huge privacy risks, because once your face, iris or DNA profile becomes a digital file, that file will be difficult to protect. And b<span>iometric identifiers could also be stolen.</span>
Answer:
a) open addressing
Explanation:
Where there is a collision we try to find some other place in our array. This approach is called, open addressing.
Open addressing is where you talk about a problem or situation freely.
