please help!!!! JAVA
I done the project expect one part but I still give you all the detail that you needed...
and I will post my code please help me fix the
CreateGrid() part in main and make GUI works
List Type Data Structures
Overview :
You will be implementing my version of a linked list. This is a linked list which has possible sublists descending from each node. These sublists are used to group together all nodes which share a common category value. You will be designing custom nodes with three categories on which to group. By the end you will have a list which is similar to the one shown below.
NOTE: The number of nodes here is for demonstration only. Your list should be able to dynamically add new nodes either to the main list, or a specific sublist based on the criteria described in the rest of these directions.
Observe that the main list is doubly-linked, while the sub-lists are not.
The Node Class
The Node class represents one "Node" of your LinkedList. The Node class must be Generic with three different parameterized types. The Generic types could each be different, so you cannot use the same generic label for each type. An example of what I mean is demonstrated in the following Node instantiation:
Node<Integer, String, Double> myNode = new
Node<Integer, String, Double>();
The following defines the requirements for the Node class. You are
not allowed to change / add / omit anything in the
requirements.
Member Variables
This class shall have one member variable called category1 which will store information related to the first grouping category. This data field shall be generic and shall have package-level access.
This class shall have one member variable called category2 which will store information related to the second grouping category. This data field shall be generic and shall have package-level access.
This class shall have one member variable called category3 which will store information related to the third grouping category. This data field shall be generic and shall have package-level access.
This class shall have one member variable called right which is a pointer to the next item in the main list. This data field shall have package-level access.
This class shall have one member variable called left which is a pointer to the previous item in the main list. This data field shall have package-level access.
This class shall have one member variable called down which is a pointer to the next item in the sub-list This data field shall have package-level access.
No other member variables are allowed.
Constructor
This class shall have one constructor which has parameters to initialize the three category data fields.
No other constructors are allowed.
Methods:
This class shall have getters for each of the three category variables.
Node<Integer, String, String> node = new Node<Integer, String, String>(27, "blue", "musician");
NOTE: That all Node instantiation and manipulation will be done within your LinkedList class. The types for the parameters will also come from the corresponding generic parameters in the LinkedList class. Nodes will NOT be instantiated in any classes OTHER than LinkedList.
The LinkedList Class
This will be the class which is responsible for all of the functionality of your LinkedList. This must be aGenericclass where the generic parameter types could each be different. An example of instantiating a LinkedList might be:
LinkedList<Integer, String, String> list = new LinkedList<Integer, String, String>();
NOTE: The parameterized types will be the same type and in the same order as the parameterized types for the Nodes for this list.
The key with properly designing this class is in how a new node is added to your list. All nodes will be grouped together based on one of the three categories from the Node class. At any given time, the user can choose how to group the nodes, and the initial grouping will always use the first category. Nodes which have the same value in the current grouping category. will be added to the same sub-list. Nodes which do not have the same value as any of the existing sub-lists will be added to the main list.
Example: Lets say I have five people P1, P2, P3, P4, and P5, and each person has the following values in their respective categories (age, eye color, profession):
P1: 25, blue, doctor
P2: 34, brown, pilot
P3: 25, brown, uber driver
P4: 25, green, doctor
P5: 34, green, uber driver
If I were to group my list based on the age category (category1), my list might look something like:
You should also be able to regroup your list based on the other two categories as well.
Member Variables:
This class shall have one member variable called head which will store a pointer to the first Node in the LinkedList.
This class shall have one member variable called size which will store the total number of elements in the list (this includes all nodes in the main list as well as the sub lists). This should be a read-only property which cannot be changed outside of the LinkedList class.
This class shall have one member variable called category1Label which will store the label for category1 from the Node class. This should be a read-only property which cannot be changed once the initial list has been created. In the above example, the label for category1 would be "Age".
This class shall have one member variable called category2Label which will store the label for category2 from the Node class. This should be a read-only property which cannot be changed once the initial list has been created. In the above example, the label for category1 would be "Eye Color".
This class shall have one member variable called category3Label which will store the label for category1 from the Node class. This should be a read-only property which cannot be changed once the initial list has been created. In the above example, the label for category1 would be "Profession".
This class shall have one member variable called groupingCategory which will store the current category number upon which the list should be grouped. The default grouping category is category1.
No other member variables are allowed.
Constructors:
This class shall have one no-arg constructor which creates an empty list.
This class shall have one constructor which takes an integer parameter, which is the number of the current category upon which you want your list to group. This constructor should also create an empty list.
This class shall have one constructor which takes a File object parameter and an integer parameter. This File is the input file from which a list can be generated and populated. The integer parameter is the current grouping property. See below for the required format of the input file. This constructor should take the File and create a list based on the values in the File.
Methods:
NOTE: These methods should be implemented with generics in mind. It will be your job to figure out how to do this.
add(value1, value2, value3):
This method shall have three parameters. These parameters are the values of the categories in a Node.
Use the parameters to create a new Node and add it to the list.
The Node must be added in such a way that it maintains the current grouping category of the list.
clear():
This method shall clear the list.
deleteFirst():
This method shall delete the first Node in the main list.
This method shall NOT delete any nodes in the first Node's sublist. The remaining Nodes in the sublist should be "reattached" to the beginning of the main list.
deleteLast():
This method shall delete the last Node in the main list.
This method shall NOT delete any nodes in the last Node's sublist. The remaining Nodes in the sublist should be "reattached" to the end of the main list.
delete(mainIndex, subIndex):
This method shall delete a specific node from anywhere in the list, given the mainIndex and subIndex.
This method should ONLY delete the requested Node and should "reconnect" any Nodes that may be attached to the deleted Node.
get(mainIndex, category):
This method shall have an integer parameter, mainIndex, which is an index (starting from 0) which indicates the Node from the main branch you want to retrieve.
This method shall have another integer parameter, category, which is a category number (1 - 3) that will indicate which category's value you want to retrieve.
This method shall return the chosen category value, from the chosen Node in the main list. The category value should be returned as a String.
If the index is out of bounds, this method should throw an IndexOutOfBoundsException with an appropriate error message indicating whether it was the main index or category value that was out of bounds.
get(mainIndex, subIndex, category):
This method shall have an integer parameter, mainIndex, which is an index (starting from 0) which indicates the Node from the main branch you want to retrieve.
This method shall have an integer parameter, subIndex, which is an index (starting from 0) which indicates the Node from the sub-list of the chosen main branch Node.
This method shall have another integer parameter, category, which is a category number (1 - 3) that will indicate which category's value you want to retrieve.
This method shall return the value from the chosen category, in the indicated sub-list. The category value should be returned as a String.
If any of the parameters are out of bounds, this method should throw an IndexOutOfBoundsExceptionwith an appropriate error message indicating whether it was the main index, sub index or category value that was out of bounds.
regroup(groupingCategoryNumber):
This method shall be responsible for regrouping your LinkedList based on the given regrouping category number.
Example: I could take the above list from the diagram, which was initially grouped based on the Age category (category 1), and I could regroup the list based on the Profession category (category 3).
If the groupingCategoryNumber is out of bounds, display an IndexOutOfBoundsException with an appropriate error message.
size():
This method shall return the size of the main list.
The size is the number of nodes in the main list.
size(index):
This method shall return the size of the sub-list at the given index.
If the given index is out of bounds, this method should throw an IndexOutOfBoundsException with an appropriate error message.
No other methods are allowed, except you may add a toString() method for testing purposes only.
Input File Format
The input file shall be in the following format:
The first three lines of the file will be the labels of each category
The next line is a blank line
The values for each category are comma separated, with one node's values per line.
example:
Age Eye Color Profession 25, blue, doctor 34, brown, pilot 25, brown, uber driver 25, green, doctor 34, green, uber driver
The GUI
Design a GUI which will display a graphical representation of your list. It should show the main list and any sub-lists in a diagram similar to what is pictured above.
The "nodes" should also display the values of the three categories stored in a node.
You must also provide a way for the user to manipulate the list using any of the previously designed methods.
-------------------------------------------------I almost done everything but did not do that grip part please help me fix it ----------------------------------------
Main.java
import javafx.application.Application;
import javafx.scene.Scene;
import javafx.scene.control.Button;
import javafx.scene.layout.GridPane;
import javafx.scene.layout.HBox;
import javafx.scene.layout.VBox;
import javafx.stage.Stage;
public class Main extends Application {
Button regroupButt = new Button("Regroup List");
Button clearButt = new Button("Clear List");
Button fileButt = new Button("File");
Button sizeButt = new Button("Size of List");
Button quitButt = new Button("Quit");
Button addButt = new Button("Add Node to List");
Button delButt = new Button("Delete a Node");
Button getButt = new Button("Get Node information");
GridPane gp = new GridPane();
HBox hb = new HBox();
VBox vb = new VBox();
// File file = new File();
@Override
public void start(Stage primaryStage) {
try {
primaryStage.setTitle("LinkedList");
hb.getStyleClass().add("hBox");
gp.getStyleClass().add("gridPane");
regroupButt.getStyleClass().add("button");
clearButt.getStyleClass().add("button");
fileButt.getStyleClass().add("button");
sizeButt.getStyleClass().add("button");
quitButt.getStyleClass().add("button");
addButt.getStyleClass().add("button");
delButt.getStyleClass().add("button");
getButt.getStyleClass().add("button");
Scene sc = new Scene(vb, 1000, 1000);
sc.getStylesheets().add("style.css");
hb.getChildren().addAll(fileButt, addButt, delButt, clearButt, getButt, regroupButt, sizeButt, quitButt);
vb.getChildren().addAll(hb, gp);
primaryStage.setScene(sc);
primaryStage.show();
} catch (Exception e) {
e.printStackTrace();
}
}
public void createGrid(){
}
public static void main(String[] args) {
launch(args);
}
}
-------------------------------------------------------------------------------------------------------------------------------
Node.Java
public class Node<T, K, O> {
protected T category1;
protected K category2;
protected O category3;
protected Node<T, K, O> right = null;
protected Node<T, K, O> left = null;
protected Node<T, K, O> down = null;
public Node(T category1, K category2, O category3) {
this.category1 = category1;
this.category2 = category2;
this.category3 = category3;
}
public T getCategory1() {
return category1;
}
public K getCategory2() {
return category2;
}
public O getCategory3() {
return category3;
}
}
----------------------------------------------------------------------------------------------------------------------------------------------
import java.io.File;
import java.io.FileNotFoundException;
import java.util.ArrayList;
import java.util.Scanner;
public class LinkedList<T, K, O> {
private Node<T, K, O> head;
private int size = 0;
private T category1Label;
private K category2Label;
private O category3Label;
private int groupingCategory;
public LinkedList() {
this.head = null;
}
public LinkedList(int currentCategory) {
this.head = null;
this.groupingCategory = currentCategory;
}
/*
* This class shall have one constructor which takes a File object
parameter
* and an integer parameter. This File is the input file from which
a list
* can be generated and populated. The integer parameter is the
current
* grouping property. .
*/
@SuppressWarnings("unchecked")
public LinkedList(File file, int currentCategory) throws
FileNotFoundException {
this.groupingCategory = currentCategory;
String lineOfData = "";
String[] field = { "" };
String values = "";
String[] singleValues = { "" };
Scanner fReader = new Scanner(file);
while (fReader.hasNextLine()) {
lineOfData += fReader.nextLine();
lineOfData += " ";
field = lineOfData.split(" ");
}
fReader.close();
this.category1Label = (T) field[0];
this.category2Label = (K) field[1];
this.category3Label = (O) field[2];
for (int HA = 4; HA < field.length; HA++) {
values += field[HA];
values += ", ";
singleValues = values.split(", ");
}
for (int LOL = 0; LOL < singleValues.length; LOL += 3)
{
add((T) singleValues[LOL], (K) singleValues[LOL + 1], (O)
singleValues[LOL + 2]);
}
}
/*
* This method shall have three parameters. These parameters are the
values
* of the categories in a Node. Use the parameters to create a new
Node and
* add it to the list. The Node must be added in such a way that
it
* maintains the current grouping category of the list.
*/
public void add(T value1, K value2, O value3) {
Node<T, K, O> newNode = new Node<T, K, O>(value1,
value2, value3);
Node<T, K, O> currentNode = this.head;
boolean done = false;
if (groupingCategory == 1) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category1.equals(value1)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category1.equals(value1)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
} else if (groupingCategory == 2) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category2.equals(value2)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category2.equals(value2)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
} else if (groupingCategory == 3) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category3.equals(value3)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category3.equals(value3)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
}
size++;
System.out.println(size);
}
/* This method shall clear the list. */
public void clear() {
this.head = null;
this.size = 0;
}
/*
* This method shall delete the first Node in the main list. This
method
* shall NOT delete any nodes in the first Node's sublist. The
remaining
* Nodes in the sublist should be "reattached" to the beginning of
the main
* list.
*/
public void deleteFirst() {
if (this.size == 0) {
System.out.println("Empty List");
} else {
if (this.head.down != null) {
this.head.right.left = this.head.down;
this.head.down.right = this.head.right;
this.head = this.head.down;
} else {
this.head = this.head.right;
}
this.size--;
}
}
/*
* This method shall delete the last Node in the main list. This
method
* shall NOT delete any nodes in the last Node's sublist. The
remaining
* Nodes in the sublist should be "reattached" to the end of the
main list.
*/
public void deleteLast() {
if (this.size == 0) {
System.out.println("Empty List");
} else {
Node<T, K, O> currentNode = this.head;
Node<T, K, O> previousNode = this.head;
while (currentNode.right != null) {
previousNode = currentNode;
currentNode = currentNode.right;
}
if (currentNode.down != null) {
currentNode.down.left = previousNode;
previousNode.right = currentNode.down;
} else {
previousNode.right = null;
}
size--;
}
}
/*
* This method shall delete a specific node from anywhere in the
list, given
* the mainIndex and subIndex. This method should ONLY delete the
requested
* Node and should "reconnect" any Nodes that may be attached to the
deleted
* Node.
*/
public void delete(int mainIndex, int subIndex) {
int countMain = 0, countSub = 0;
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("main index out of
bounds");
} else if (subIndex > size(mainIndex) || subIndex < 0)
{
throw new IndexOutOfBoundsException("sub index out of
bounds");
}
if (mainIndex == 0 && subIndex == 0) {
deleteFirst();
} else if (mainIndex == size() - 1 && subIndex == 0)
{
deleteLast();
}
Node<T, K, O> currentNode = this.head;
Node<T, K, O> previousNode = this.head;
while (currentNode.right != null && countMain <
mainIndex) {
previousNode = currentNode;
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub <
subIndex) {
previousNode = currentNode;
currentNode = currentNode.down;
countSub++;
}
Node<T, K, O> rightReference = currentNode.right;
Node<T, K, O> leftReference = currentNode.left;
if (subIndex == 0) {
if (currentNode.down != null) {
rightReference.left = currentNode.down;
leftReference.right = currentNode.down;
currentNode.down.right = rightReference;
currentNode.down.left = leftReference;
} else {
rightReference.left = leftReference;
leftReference.right = rightReference;
}
size--;
} else if (subIndex > 0) {
if (currentNode.down != null) {
previousNode.down = currentNode.down;
} else {
previousNode.down = null;
}
}
}
/*
* This method shall have an integer parameter, mainIndex, which is
an index
* (starting from 0) which indicates the Node from the main branch
you want
* to retrieve.
*/
public String get(int mainIndex, int category) {
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("mainIndex out of
bounds");
} else if (category < 0 || category > 3) {
throw new IndexOutOfBoundsException("category index out of
bounds");
}
int count = 0;
Node<T, K, O> currentNode = this.head;
if (category == 1) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory1();
} else if (category == 2) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory2();
} else if (category == 3) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory3();
}
return null;
}
public String get(int mainIndex, int subIndex, int category)
{
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("main index out of
bounds");
} else if (category < 0 || category > 3) {
throw new IndexOutOfBoundsException("category index out of
bounds");
} else if (subIndex < 0 | subIndex > size(mainIndex)) {
throw new IndexOutOfBoundsException("sub index out of
bounds");
}
int countMain = 0, countSub = 0;
Node<T, K, O> currentNode = this.head;
if (category == 1) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory1();
} else if (category == 2) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory2();
} else if (category == 3) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory3();
}
return null;
}
/*
* This method shall be responsible for regrouping your LinkedList
based on
* the given regrouping category number. Example: I could take the
above
* list from the diagram, which was initially grouped based on the
Age
* category (category 1), and I could regroup the list based on
the
* Profession category (category 3). If the groupingCategoryNumber
is out of
* bounds, display an IndexOutOfBoundsException with an appropriate
error
* message.
*/
public void regroup(int groupingCategoryNumber) {
if (groupingCategoryNumber < 1 || groupingCategoryNumber > 3)
{
throw new IndexOutOfBoundsException("grouping category number out
of bounds, bounds = [0,3]");
} else {
this.groupingCategory = groupingCategoryNumber;
ArrayList<Node<T, K, O>> listOfNodes = new
ArrayList<>();
Node<T, K, O> mainNode = this.head;
Node<T, K, O> subNode = this.head;
while (mainNode != null) {
listOfNodes.add(mainNode);
while(subNode.down != null){
subNode = subNode.down;
listOfNodes.add(subNode);
}
mainNode = mainNode.right;
subNode = mainNode;
}
clear();
for (int i = 0; i < listOfNodes.size(); i++) {
add(listOfNodes.get(i).getCategory1(),listOfNodes.get(i).getCategory2(),listOfNodes.get(i).getCategory3());
}
}
}
/*
* This method shall return the size of the main list. The size is
the
* number of nodes in the main list.
*/
public int size() {
Node<T, K, O> currentNode = this.head;
int mainListSize = 1;
while (currentNode.right != null) {
currentNode = currentNode.right;
mainListSize++;
}
return mainListSize;
}
/*
* This method shall return the size of the sub-list at the given
index. If
* the given index is out of bounds, this method should throw
an
* IndexOutOfBoundsException with an appropriate error
message.
*/
public int size(int index) {
int count = 0;
int subListSize = 0;
if (index > size() - 1 || index < 0) {
throw new IndexOutOfBoundsException("Index out of bounds, index
bounds: [0," + size() + "]");
} else {
if (index == 0) {
Node<T, K, O> thisNode = this.head;
while (thisNode.down != null) {
thisNode = thisNode.down;
subListSize++;
}
} else {
Node<T, K, O> currentNode = this.head;
while (currentNode.right != null && count < index)
{
currentNode = currentNode.right;
count++;
}
while (currentNode.down != null) {
currentNode = currentNode.down;
subListSize++;
}
}
}
return subListSize;
}
public void print() {
// System.out.println(this.head.right.getCategory1());
// System.out.println(this.head.down.getCategory1());
// System.out.println(this.head.down.down.getCategory1());
//
//
System.out.println(this.head.right.right.left.down.getCategory2());
System.out.println(this.head.right.right.getCategory3());
}
public void print2() {
System.out.println(this.head.getCategory1());
System.out.println(this.head.down.getCategory1());
System.out.println(this.head.down.down.getCategory1());
}
}
-------------------------------------------------------------
style.css
.hBox{
-fx-background-color: #000000;
}
.gridPane{
-fx-pref-height: 1000.0;
-fx-pref-width: 900.0;
-fx-background-color: #000000;
}
.button{
-fx-background-color: #000000;
-fx-border-color: #ffffff;
-fx-text-fill: #ffffff;
}
-------------------------------------------------------------------------------
i make changes the program and run it
import javafx.application.Application;
import javafx.scene.Scene;
import javafx.scene.control.Button;
import javafx.scene.layout.GridPane;
import javafx.scene.layout.HBox;
import javafx.scene.layout.VBox;
import javafx.stage.Stage;
public class Main extends Application {
Button regroupButt = new Button("Regroup List");
Button clearButt = new Button("Clear List");
Button fileButt = new Button("File");
Button sizeButt = new Button("Size of List");
Button quitButt = new Button("Quit");
Button addButt = new Button("Add Node to List");
Button delButt = new Button("Delete a Node");
Button getButt = new Button("Get Node information");
GridPane gp = new GridPane();
HBox hb = new HBox();
VBox vb = new VBox();
// File file = new File();
@Override
public void start(Stage primaryStage) {
try {
primaryStage.setTitle("LinkedList");
hb.getStyleClass().add("hBox");
gp.getStyleClass().add("gridPane");
regroupButt.getStyleClass().add("button");
clearButt.getStyleClass().add("button");
fileButt.getStyleClass().add("button");
sizeButt.getStyleClass().add("button");
quitButt.getStyleClass().add("button");
addButt.getStyleClass().add("button");
delButt.getStyleClass().add("button");
getButt.getStyleClass().add("button");
Scene sc = new Scene(vb, 1000, 1000);
sc.getStylesheets().add("style.css");
hb.getChildren().addAll(fileButt, addButt, delButt, clearButt, getButt, regroupButt, sizeButt, quitButt);
vb.getChildren().addAll(hb, gp);
primaryStage.setScene(sc);
primaryStage.show();
} catch (Exception e) {
e.printStackTrace();
}
}
public void createGrid(){
}
public static void main(String[] args) {
launch(args);
}
}
-------------------------------------------------------------------------------------------------------------------------------
Node.Java
public class Node<T, K, O> {
protected T category1;
protected K category2;
protected O category3;
protected Node<T, K, O> right = null;
protected Node<T, K, O> left = null;
protected Node<T, K, O> down = null;
public Node(T category1, K category2, O category3) {
this.category1 = category1;
this.category2 = category2;
this.category3 = category3;
}
public T getCategory1() {
return category1;
}
public K getCategory2() {
return category2;
}
public O getCategory3() {
return category3;
}
}
----------------------------------------------------------------------------------------------------------------------------------------------
import java.io.File;
import java.io.FileNotFoundException;
import java.util.ArrayList;
import java.util.Scanner;
public class LinkedList<T, K, O> {
private Node<T, K, O> head;
private int size = 0;
private T category1Label;
private K category2Label;
private O category3Label;
private int groupingCategory;
public LinkedList() {
this.head = null;
}
public LinkedList(int currentCategory) {
this.head = null;
this.groupingCategory = currentCategory;
}
/*
* This class shall have one constructor which takes a File object
parameter
* and an integer parameter. This File is the input file from which
a list
* can be generated and populated. The integer parameter is the
current
* grouping property. .
*/
@SuppressWarnings("unchecked")
public LinkedList(File file, int currentCategory) throws
FileNotFoundException {
this.groupingCategory = currentCategory;
String lineOfData = "";
String[] field = { "" };
String values = "";
String[] singleValues = { "" };
Scanner fReader = new Scanner(file);
while (fReader.hasNextLine()) {
lineOfData += fReader.nextLine();
lineOfData += " ";
field = lineOfData.split(" ");
}
fReader.close();
this.category1Label = (T) field[0];
this.category2Label = (K) field[1];
this.category3Label = (O) field[2];
for (int HA = 4; HA < field.length; HA++) {
values += field[HA];
values += ", ";
singleValues = values.split(", ");
}
for (int LOL = 0; LOL < singleValues.length; LOL += 3)
{
add((T) singleValues[LOL], (K) singleValues[LOL + 1], (O)
singleValues[LOL + 2]);
}
}
/*
* This method shall have three parameters. These parameters are the
values
* of the categories in a Node. Use the parameters to create a new
Node and
* add it to the list. The Node must be added in such a way that
it
* maintains the current grouping category of the list.
*/
public void add(T value1, K value2, O value3) {
Node<T, K, O> newNode = new Node<T, K, O>(value1,
value2, value3);
Node<T, K, O> currentNode = this.head;
boolean done = false;
if (groupingCategory == 1) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category1.equals(value1)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category1.equals(value1)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
} else if (groupingCategory == 2) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category2.equals(value2)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category2.equals(value2)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
} else if (groupingCategory == 3) {
if (this.head == null) {
this.head = newNode;
System.out.println("made first head");
} else {
if (currentNode.category3.equals(value3)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to first node downlist");
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to first node down list p2");
}
} else {
while (currentNode.right != null) {
currentNode = currentNode.right;
if (currentNode.category3.equals(value3)) {
if (currentNode.down == null) {
currentNode.down = newNode;
System.out.println("added to middle node downlist");
done = true;
} else {
Node<T, K, O> tempCur = currentNode;
while (tempCur.down != null) {
tempCur = tempCur.down;
}
tempCur.down = newNode;
System.out.println("added to middle node down list p2");
done = true;
}
}
}
if (!done) {
currentNode.right = newNode;
newNode.left = currentNode;
System.out.println("created a new node in main list");
}
}
}
}
size++;
System.out.println(size);
}
/* This method shall clear the list. */
public void clear() {
this.head = null;
this.size = 0;
}
/*
* This method shall delete the first Node in the main list. This
method
* shall NOT delete any nodes in the first Node's sublist. The
remaining
* Nodes in the sublist should be "reattached" to the beginning of
the main
* list.
*/
public void deleteFirst() {
if (this.size == 0) {
System.out.println("Empty List");
} else {
if (this.head.down != null) {
this.head.right.left = this.head.down;
this.head.down.right = this.head.right;
this.head = this.head.down;
} else {
this.head = this.head.right;
}
this.size--;
}
}
/*
* This method shall delete the last Node in the main list. This
method
* shall NOT delete any nodes in the last Node's sublist. The
remaining
* Nodes in the sublist should be "reattached" to the end of the
main list.
*/
public void deleteLast() {
if (this.size == 0) {
System.out.println("Empty List");
} else {
Node<T, K, O> currentNode = this.head;
Node<T, K, O> previousNode = this.head;
while (currentNode.right != null) {
previousNode = currentNode;
currentNode = currentNode.right;
}
if (currentNode.down != null) {
currentNode.down.left = previousNode;
previousNode.right = currentNode.down;
} else {
previousNode.right = null;
}
size--;
}
}
/*
* This method shall delete a specific node from anywhere in the
list, given
* the mainIndex and subIndex. This method should ONLY delete the
requested
* Node and should "reconnect" any Nodes that may be attached to the
deleted
* Node.
*/
public void delete(int mainIndex, int subIndex) {
int countMain = 0, countSub = 0;
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("main index out of
bounds");
} else if (subIndex > size(mainIndex) || subIndex < 0)
{
throw new IndexOutOfBoundsException("sub index out of
bounds");
}
if (mainIndex == 0 && subIndex == 0) {
deleteFirst();
} else if (mainIndex == size() - 1 && subIndex == 0)
{
deleteLast();
}
Node<T, K, O> currentNode = this.head;
Node<T, K, O> previousNode = this.head;
while (currentNode.right != null && countMain <
mainIndex) {
previousNode = currentNode;
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub <
subIndex) {
previousNode = currentNode;
currentNode = currentNode.down;
countSub++;
}
Node<T, K, O> rightReference = currentNode.right;
Node<T, K, O> leftReference = currentNode.left;
if (subIndex == 0) {
if (currentNode.down != null) {
rightReference.left = currentNode.down;
leftReference.right = currentNode.down;
currentNode.down.right = rightReference;
currentNode.down.left = leftReference;
} else {
rightReference.left = leftReference;
leftReference.right = rightReference;
}
size--;
} else if (subIndex > 0) {
if (currentNode.down != null) {
previousNode.down = currentNode.down;
} else {
previousNode.down = null;
}
}
}
/*
* This method shall have an integer parameter, mainIndex, which is
an index
* (starting from 0) which indicates the Node from the main branch
you want
* to retrieve.
*/
public String get(int mainIndex, int category) {
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("mainIndex out of
bounds");
} else if (category < 0 || category > 3) {
throw new IndexOutOfBoundsException("category index out of
bounds");
}
int count = 0;
Node<T, K, O> currentNode = this.head;
if (category == 1) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory1();
} else if (category == 2) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory2();
} else if (category == 3) {
while (currentNode.right != null && count < mainIndex)
{
currentNode = currentNode.right;
count++;
}
return (String) currentNode.getCategory3();
}
return null;
}
public String get(int mainIndex, int subIndex, int category)
{
if (mainIndex > size() - 1 || mainIndex < 0) {
throw new IndexOutOfBoundsException("main index out of
bounds");
} else if (category < 0 || category > 3) {
throw new IndexOutOfBoundsException("category index out of
bounds");
} else if (subIndex < 0 | subIndex > size(mainIndex)) {
throw new IndexOutOfBoundsException("sub index out of
bounds");
}
int countMain = 0, countSub = 0;
Node<T, K, O> currentNode = this.head;
if (category == 1) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory1();
} else if (category == 2) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory2();
} else if (category == 3) {
while (currentNode.right != null && countMain <
mainIndex) {
currentNode = currentNode.right;
countMain++;
}
while (currentNode.down != null && countSub < subIndex)
{
currentNode = currentNode.down;
countSub++;
}
return (String) currentNode.getCategory3();
}
return null;
}
/*
* This method shall be responsible for regrouping your LinkedList
based on
* the given regrouping category number. Example: I could take the
above
* list from the diagram, which was initially grouped based on the
Age
* category (category 1), and I could regroup the list based on
the
* Profession category (category 3). If the groupingCategoryNumber
is out of
* bounds, display an IndexOutOfBoundsException with an appropriate
error
* message.
*/
public void regroup(int groupingCategoryNumber) {
if (groupingCategoryNumber < 1 || groupingCategoryNumber > 3)
{
throw new IndexOutOfBoundsException("grouping category number out
of bounds, bounds = [0,3]");
} else {
this.groupingCategory = groupingCategoryNumber;
ArrayList<Node<T, K, O>> listOfNodes = new
ArrayList<>();
Node<T, K, O> mainNode = this.head;
Node<T, K, O> subNode = this.head;
while (mainNode != null) {
listOfNodes.add(mainNode);
while(subNode.down != null){
subNode = subNode.down;
listOfNodes.add(subNode);
}
mainNode = mainNode.right;
subNode = mainNode;
}
clear();
for (int i = 0; i < listOfNodes.size(); i++) {
add(listOfNodes.get(i).getCategory1(),listOfNodes.get(i).getCategory2(),listOfNodes.get(i).getCategory3());
}
}
}
/*
* This method shall return the size of the main list. The size is
the
* number of nodes in the main list.
*/
public int size() {
Node<T, K, O> currentNode = this.head;
int mainListSize = 1;
while (currentNode.right != null) {
currentNode = currentNode.right;
mainListSize++;
}
return mainListSize;
}
/*
* This method shall return the size of the sub-list at the given
index. If
* the given index is out of bounds, this method should throw
an
* IndexOutOfBoundsException with an appropriate error
message.
*/
public int size(int index) {
int count = 0;
int subListSize = 0;
if (index > size() - 1 || index < 0) {
throw new IndexOutOfBoundsException("Index out of bounds, index
bounds: [0," + size() + "]");
} else {
if (index == 0) {
Node<T, K, O> thisNode = this.head;
while (thisNode.down != null) {
thisNode = thisNode.down;
subListSize++;
}
} else {
Node<T, K, O> currentNode = this.head;
while (currentNode.right != null && count < index)
{
currentNode = currentNode.right;
count++;
}
while (currentNode.down != null) {
currentNode = currentNode.down;
subListSize++;
}
}
}
return subListSize;
}
public void print() {
// System.out.println(this.head.right.getCategory1());
// System.out.println(this.head.down.getCategory1());
// System.out.println(this.head.down.down.getCategory1());
//
//
System.out.println(this.head.right.right.left.down.getCategory2());
System.out.println(this.head.right.right.getCategory3());
}
public void print2() {
System.out.println(this.head.getCategory1());
System.out.println(this.head.down.getCategory1());
System.out.println(this.head.down.down.getCategory1());
}
}
-------------------------------------------------------------
style.css
.hBox{
-fx-background-color: #000000;
}
.gridPane{
-fx-pref-height: 1000.0;
-fx-pref-width: 900.0;
-fx-background-color: #000000;
}
.button{
-fx-background-color: #000000;
-fx-border-color: #ffffff;
-fx-text-fill: #ffffff;
}
please help!!!! JAVA I done the project expect one part but I still give you all...
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In C++, for the provided template linked list class create a derived class of it which adds the functionality to it to find the high and low value of any given data stored in the list. The derived class must be a template. LinkedList.h #pragma once #include <iostream> using namespace std; template <class T> class ListNode { public: T data; ListNode<T>* next; ListNode(T data) { this->data = data;...
Problem 3 (List Implementation) (35 points): Write a method in the DoublyLList class that deletes the first item containing a given value from a doubly linked list. The header of the method is as follows: public boolean removeValue(T aValue) where T is the general type of the objects in the list and the methods returns true if such an item is found and deleted. Include testing of the method in a main method of the DoublyLList class. ------------------------------------------------------------------------------------- /** A...
9.8 LAB: Finding the first and last occurrence of a value (doubly-linked list) Given main() and a PeopleNode class, complete the PeopleList class by writing findFirst() and findLast() methods. The findFirst() method should find the first occurrence of an age value in the linked list and return the corresponding node. Similarly, the findLast() method should find the last occurrence of the age value in the linked list and return the corresponding node. For both methods, if the age value is...
could somone please help me to complete this ! public class MyLinkedList<AnyType> { private Node<AnyType> head, tail; private int size; public MyLinkedList() { this.head = null; this.tail = null; this.size = 0; } //1.Insert a node at the end of the list public void insert(AnyType data) { Node<AnyType> newNode = new Node(); newNode.data = data; if (head == null) { head = newNode; tail = newNode; head.next = null; tail.next = null; } else { tail.next = newNode; tail =...