Nursing education is adopting e-learning and simulation experiences for the students. Two junior-level nursing students, Gene and Linda, are discussing the merits of this type of nursing-focused learning. What pros and cons will Gene identify associated with e-learning? How will Linda identify the different types of simulations and the impact they have on nursing education?

Nursing education is adopting e-learning and simulation experiences for the students. Two junior-level nursing students, Gene and Linda, are discussing the merits of this type of nursing-focused learning.

1. What pros and cons will Gene identify associated with e-learning?
2. How will Linda identify the different types of simulations and the impact they have on nursing education?

Nursing education is adopting e-learning and simulation experiences for the students. Two junior-level nursing students, Gene and Linda, are discussing the merits of this type of nursing-focused learning.

1. What pros and cons will Gene identify associated with e-learning?
2. How will Linda identify the different types of simulations and the impact they have on nursing education?

Grand Canyon University’s College of Education suggests that there are 10 professional dispositionseducators should possess. One of these is respect for the diversity of others. Are you prepared to teach diverse texts? Are you sensitive to individual learning and social needs? Are you prepared to build a community of students within and beyond the classroom for the sake of students’ language growth and learning?

We have 95 students in a class. Their abilities/eagerness are uniform randomly distributed on a scale between 1 and 4; and at the end of the class they will be judged right and they will receive a grade corresponding to their ability/eagerness (corresponding to their performance). What is the probability that the class average will be between 2.8 and 4? How would this number change (if it does) for 120 students?

Suppose that 60% of college students eat pizza weekly. Answer the following questions if you have a random sample of 50 college students. What is the probability that exactly 29 eat pizza weekly? What is the probability that 35 or fewer eat pizza weekly? What is the probability that more than 32 eat pizza weekly?

Write a C++ code to insert the following numbers in two Linked Lists. Insert numbers of first list in Linked List#1, and numbers of second list in Linked List#2. Do not insert both lists in a single Linked List.

List#1.

5, 78, 45, 23, 11, 89, 10, 78, 6, 99, 876, 5, 67, 13

List#2.

5, 89, 688, 52, 557, 953, 5, 7, 55, 35, 89, 99, 99, 6, 557, 89, 5, 99, 6, 2, 45, 12, 7, 6, 94, 93, 99, 67

After inserting numbers in linked lists. Write a function to print only those numbers that appear in List#1 and more than 2 times in List#2.

For example, the number “5” appears in List#1 and 3 times in List#2. So your code should print “5” and similar other numbers.

Outcomes: • Write a Java program that implements linked list algorithms

can u also show thee testing code

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This is the starter code

import java.util.NoSuchElementException;

// Put your prologue comments here

public class LinkedAlgorithms {

  
   private class Node {
       private String data;
       private Node next;

       private Node(String data) {
           this.data = data;
           this.next = null;
       }
   }

   public Node head;
   public int numItems;

   /**
   * Creates the empty list.
   */
   public LinkedAlgorithms() {
   }

   /**
   * Creates a list containing all the elements of the passed array.
   * {@code data[0]} will be the first element of the list, {@code data[1]} will
   * be the second element of the list, and so on.
   *
   * @param data The array of values
   * @throws NullPointerException - data is null
   */
   public LinkedAlgorithms(String[] data) {
   }

   /**
   * Constructs a deep copy of the linked list {@code original}
   *
   * @param original The list to be copied
   * @throws NullPointerException - original is null
   */
   public LinkedAlgorithms(LinkedAlgorithms original) {
   }

   /**
   * Returns array with all the elements.
   *
   * @return Array containing all elements.
   */
   public String[] toArray() {
       return null;
   }

   /**
   * Formats the elements in the list using leading and ending brackets (i.e., []), with the values comma separated.
   * There will be one space between each of these but none at the beginning nor at the end.
   * Some examples:
   * if the list is empty, toString() gives []
   * if the list has these three elements in this order: "hello", "world", "everyone", then the result should be
   * [hello, world, everyone]
   */
   @Override
   public String toString() {
       return null;
   }

   /**
   * Returns the number of items in the list
   *
   * @return Number of items in the list
   */
   public int size() {
       return 0;
   }

   /**
   * Determines if two lists contain exactly the same values, in exactly the same
   * order.
   *
   * @return {@code true} if and only if obj is an list that is equivalent to the
   * incoming list.
   */
   public boolean equalsLinkedList(LinkedAlgorithms obj) {
       return false;
   }

   /**
   * Determines if {@code key} is in the linked list.
   *
   * @param key The value to be found
   * @return true if and only if {@code key} is in the list
   */
   public boolean contains(String key) {
       return false;
   }

   /**
   * Determines the index of {@code key}. -1 is returned if the value is not
   * present in the linked list. If {@code key} is present present more than once,
   * the first index is returned.
   *
   * @param key The value to be found
   * @return The index of the {@code key}
   */
   public int find(String key) {
       return 0;
   }

   /**
   * Returns the value of the first element of the list.
   *
   * @return The first element of the list.
   * @throws NoSuchElementException the list is empty
   */
   public String getFirst() {
       return null;
   }

   /**
   * Returns the value of the last element of the list.
   *
   * @return The last element of the list.
   * @throws NoSuchElementException the list is empty
   */
   public String getLast() {
       return null;
   }

   /**
   * Returns the value of the {@code ith} element of the list (0 based).
   *
   * @param i The target index
   * @return The value of the ith element of the list.
   * @throws IndexOutOfBoundsException {@code i} is illegal
   */
   public String getAt(int i) {
       return null;
   }

   /**
   * Adds {@code data} to the beginning of the list. All other values in the list
   * remain but they are "shifted to the right."
   *
   * @param data The value to add to the list
   */
   public void insertFirst(String data) {
   }

   /**
   * Adds {@code data} to the end of the list. All other values in the list remain
   * in their current positions.
   *
   * @param data The value to add to the list
   */
   public void insertLast(String data) {
   }

   /**
   * Adds data to a specific spot in the list. The values in the list remain
   * intact but {@code data} is inserted in the list at position {@code i}. When
   * {@code i=0}, the result is the same as {@code insertFirst}.
   *
   * @param i The target index
   * @param data The value to add to the list
   * @throws IndexOutOfBoundsException {@code i} is illegal
   */
   public void insertAt(int i, String data) {
   }

   /**
   * Adds {@code newData} the position immediately preceding {@code existingData}.
   * If the {@code existingData} appears multiple times, only the first one is
   * used.
   *
   * @param newData The value to add to the list
   * @param existingData The value used to control where insertion is to take
   * place
   * @throws NoSuchElementException {@code existingData} is not in the list
   */
   public void insertBefore(String newData, String existingData) {
   }

   /**
   * Adds {@code newData} the position immediately after {@code existingData}. If
   * the {@code existingData} appears multiple times, only the first one is used.
   *
   * @param newData The value to add to the list
   * @param existingData The value used to control where insertion is to take
   * place
   * @throws NoSuchElementException {@code existingData} is not in the list
   */
   public void insertAfter(String newData, String existingData) {
   }

   /**
   * Removes the first element of the list. The remaining elements are kept in
   * their existing order.
   *
   * @return The value removed from the list
   * @throws NoSuchElementException if the list is empty.
   */
   public String removeFirst() {
       return null;
   }

   /**
   * Removes the last element of the list. The remaining elements are kept in
   * their existing order.
   *
   * @return The value removed from the list
   * @throws NoSuchElementException if the list is empty.
   */
   public String removeLast() {
       return null;
   }

   /**
   * Removes the ith element of the list. The remaining elements are kept in their
   * existing order.
   *
   * @param i The target index
   * @return The value removed from the list
   * @throws IndexOutOfBoundsException i does not represent a legal index
   */
   public String removeAt(int i) {
       return null;
   }

   /**
   * Removes the first occurrence of data in the linked list.
   *
   * @param data The value to be removed.
   * @return {@code true} if and only if {@code data} was removed
   */
   public boolean removeFirstOccurrenceOf(String data) {
       return false;
   }

   /**
   * Removes the all occurrence of {@code data} in the linked list.
   *
   * @param data The value to be removed.
   * @return The number of times {@code data} was removed
   */
   public int removeAllOccurrencesOf(String data) {
       return 0;
   }

   /**
   * Reverses the elements in the incoming linked list.
   */
   public void reverse() {
   }

   /**
   * Puts all the elements in the list to uppercase.
   */
   public void toUpper() {
   }

   /**
   * Returns the concatenation of all strings, from left to right. No extra spaces
   * are inserted.
   *
   * @return Concatenation of all string in the list
   */
   public String getConcatenation() {
       return null;
   }

   /**
   * Returns the alphabetically last value in the list.
   *
   * @return The alphabetically last value in the list
   * @throws NoSuchElementException list is empty
   */
   public String getAlphabeticallyLast() {
       return null;
   }

   /**
   * Returns the index where the alphabetically last value value resides. If this
   * value appears multiple times, the first occurrence is used.
   *
   * @return Index value of where maximum value resides
   * @throws NoSuchElementException list is empty
   */
   public int indexOfAlphabeticallyLast() {
       return 0;
   }

   /*
   * Determines if the two list contain elements that have exactly the same
   * value, with the same list sizes, but with the elements perhaps in different order.
   *
   * @returns true only if the two lists are permutations of one another.
   */
   public boolean anagrams(LinkedAlgorithms other) {
       return false;
   }

   public static void main(String[] args) {
       String[] items = { "hello", "world" };
       LinkedAlgorithms LL1 = new LinkedAlgorithms();
       LinkedAlgorithms LL2 = new LinkedAlgorithms(items);
       LinkedAlgorithms LL3 = new LinkedAlgorithms(LL1);
   }
}

Data Structures on Java

Basic Linked List exercises

a. Suppose x is a linked-list node and not the last node on the list.

What is the effect of the following code fragment?

x.next = x.next.next

b. Singly Linked List has two private instance variables first and last as that point to the first and the last nodes in the list, respectively. Write a fragment of code that removes the last node in a linked list whose first node is first. Is there any advantage of keeping the last pointer in a linked list implementation? Explain.

1. Answer “True” or “False”.

(a) A doubly linked list structure is worse than a singly linked list if we plan to do a lot of insertions.

(b) A doubly linked list structure is worse than a singly linked list if we plan to do a lot of deletions.

(c) A doubly linked list structure is worse than a singly linked list if we plan to print the entire list frequently.

(d) An array implementation of a queue is more difficult to manage than the array implementation of a stack.

Solution: