Wireless Security & Forensics

 

In this weekly discussion, you will discuss the use of a tool for manual examination of a phone:

  • Select  one of the tools mentioned in the text and describe the tools  functionality and process used in an examination of a device.
  • Using the Internet, research the web for an article related to the tool and answer the following questions:
  1. What are some of the advantages or disadvantages of the tool?
  2. Discuss the tools setup
  3. Appraise the value of the tool in gathering evidence for prosecution

Your  response to the DQ must be a minimum of 400 words. You must provide  references for your response (APA format). You will need to reply to two  (2) other fellow student’s posts (See the syllabus). The responses must be made in the week due.

computer

 

  1. How does the logical topology differ from the physical topology?
  2. What advantages of the logical star topology have as compared to the logical bus topology?
  3. What is the OSI model? Why is it important for understanding networking?
  4. What is the difference between connectionless and connection-oriented services?
  5. How does TCP differ from UDP?
  6. How does SSH differ from Telnet? How does HTTPS differ from HTTP?
  7. Why are wires twisted together in twisted pair cables?
  8. You have an installation that requires Cat 5 cabling. Which cable ratings could you use for the installation?
  9. Is twisted pair cable more immune to EMI than coaxial cable?
  10. What advantages do fiber optic cables offer over twisted pair cables and other media choices? What are the disadvantages of implementing fiber optic cables?
  11. What is the difference between single-mode and multimode cables?

 Think about how you use a computer.  Could you use Linux instead of Windows or MAC OS as your primary OS? Other than personal preference, explain why you can or cannot. 

Java program

Objectives: Create a Java program using programming fundamentals (file I/O, loops, conditional statements, arrays, functions)

Problem: In an effort to win a coding competition, you decided to create an awesome Obstacle Warrior game. The game is played on a 2-dimensional board similar to a Chess board, but the dimensions may be different. The minimum size of the board is 2×2. The board will have a Start square and an Exit square that are not stored on the board. Start and Exit squares cannot be the same. Other board squares may contain obstacles in the form of an integer that will define how the warrior position and score will be affected. The obstacle squares can have values from 0 to -10 only. The Start square is always a clear square. All clear squares are marked with # on the board. The Exit square may contain an obstacle that is not a zero. The size of the board, number of obstacles, and Start and Exit squares are all unknow to your code prior to running. This information is stored in a file that your code will read at the beginning of the game. The board.dat file must be read into a 2-D array.

A warrior must start at the Start square and find their way to the Exit square. The warrior can move on the board in any direction including diagonally, one square at a time. A warrior has a running score (integer) maintained from the start of the game until the warrior exits the board. If the warrior lands on an obstacle square with a value of zero, the warrior is sent back to the starting position and the obstacle square will become a normal square (obstacle removed). If the obstacle square has a negative number, that number will reduce the warrior’s score by the value of the obstacle, and the obstacle square will become a clear square (obstacle removed). Each VALID move that the warrior makes without landing on an obstacle will earn the warrior one point. The moves for the warrior are randomly generated by your code in the form of a direction (0-UP, 1-DOWN, 2-LEFT, 3-RIGHT, 4-UPRIGHT, 5-DOWNRIGHT, 6-UPLEFT, 7-DOWNLEFT). If the warrior is at the boundary of the board and your code generates an invalid move, that move will be ignored. Your code will keep generating moves until the warrior exits at the Exit square. Once the warrior exits, your program will store the updated board information to a new file ResultBoard.dat as single-space separated data. The program will also display the total number of valid moves, the total time elapsed in milliseconds since the first move until the warrior exited the board, the final score of the warrior and the formatted board information (right aligned columns with total of 5 spaces).

Output Format:

  • Each column in the final board display must be of total width of 5 spaces
  • Data in each column must be right aligned
Enter the board data file path: C:board.dat //Repeat prompt until valid file OR show error and exit.
Type "Start" to start the game or "Exit" to exit the game: exit //Your program must exit
Enter the board file path: C:board.dat
Type "Start" to start the game or "Exit" to exit the game: start //You may display the moves and the running score after each move but it is not required
The warrior made 270 valid moves in 503 milliseconds. The final score is 175 points.

   #    #    #    #    #
   #    #    #    0    #
   #    #    #    #    #
   #   -3    #    #   -4
   #    #    #    #    #

Press any key to exit!

Program Structure: Your code should be modular and easy to understand. In addition to the main method, the following methods are required to be in your code. These methods will be used by the unit testing to test the accuracy of your code.

public static String[][] ReadBoardFromFile(String fileName, Position startPosition, Position exitPosition)
public static boolean WriteBoardToFile(String fileName, String[][] boardArray)
public static int GenerateDirection()
public static boolean MoveWarrior(int direction, String[][] boardArray, Position currentPosition)
public static int CalculateWarriorScore(int currentScore, Position currentPosition, String[][] boardArray)
public static String DisplayResults(int currentScore, int numberOfMoves, int timeElapsed, String[][] boardArray)

Program Flow:

  • Program starts in main() method
  • Prompt user for Board.dat file path
  • Read board from file
  • Generate a direction
  • Move the warrior
  • Calculate new score
  • Check conditions and clear square if needed
  • Repeat until the warrior is at the exit square
  • Display the results
  • Prompt user to exit game

Board.dat file format:

  • The data in the file will be separated by one space
  • Assume that all data in the file is valid
  • Clear and Start squares (no obstacles) will be marked with # in the file
  • The first line of the file contains the dimensions of the board (rows and columns) e.g. 3 7
  • The second line contains the Start square indexes (rowIndex, columnIndex)
  • The third line contains the Exit square indexes (rowIndex, columnIndex)
  • The rest of the lines represent the contents, including obstacles, of a row on the board
  • Example of a Board size 5×5 data file:
5 5
2 2
4 3
# -5 # # #
# # # 0 #
# # # # #
# -3 # # -4
-10 # # # #

**ResultBoard.dat file format: **

  • Data must be separated by a single space
# # # # #
# # # 0 #
# # # # #
# -3 # # -4
# # # # #

Grading:

  • Coding standards, style and comments (10 Points)
  • Unit testing methods x6, one for each of the methods mentioned above (10 Points)
  • ReadBoardFromFile (10 Points)
  • WriteBoardToFile (10 Points)
  • GenerateDirection (10 Points)
  • MoveWarrior (20 Points)
  • CalculateWarriorScore (20 Points)
  • DisplayResults (10 Points)

Unit Test

package ObstaclesWarrior;

import static org.junit.Assert.assertArrayEquals;

import static org.junit.Assert.assertEquals;

import static org.junit.Assert.assertTrue;

import java.io.File;

import java.io.PrintWriter;

import org.junit.Test;

/**

* Unit test

*/

public class MainTest {

@Test

public void ReadBoardFromFileTest()

{

final String FILE_NAME = “Board.dat”;

//Either dynamically create the Board.dat file or assume it already exists

/*File file = new File(FILE_NAME);

PrintWriter printToFile = new PrintWriter(file);

printToFile.println(“4 4”);

printToFile.println(“0 2”);

printToFile.println(“2 2”);

printToFile.println(“0 # # #”);

printToFile.println(“# -3 # -5”);

printToFile.println(“# # # #”);

printToFile.println(“# # -1 #”);

printToFile.close();

*/

//Create start and exit positions to pass to the method.

//These objects will be set with actual values from the

//board file by your code inside the ReadBoardFromFile() method

Position actualStartPosition = new Position(0, 0);

Position actualExitPosition = new Position(0, 0);

//These are the expected values for the start and exit postions

Position expectedStartPosition = new Position(0, 2);

Position expectedExitPosition = new Position(2, 2);

//Create the expected array with the data

String[][] expectedBoardArray = {

{“0”, “#”, “#”, “#” },

{“#”, “-3”, “#”, “-5” },

{“#”, “#”, “#”, “#” },

{“#”, “#”, “-1”, “#” },

};

//Invoke the ReadBoardFromFile() method and capture the returned array

String[][] actualBoardArray = Main.ReadBoardFromFile( FILE_NAME,

actualStartPosition,

actualExitPosition);

//Check if the start and exit positions match   

if((expectedStartPosition.getX() != actualStartPosition.getX())||

(expectedStartPosition.getY() != actualStartPosition.getY()))

{

assertTrue(“Start position does not match”, false);

}

if((expectedExitPosition.getX() != actualExitPosition.getX())||

(expectedExitPosition.getY() != actualExitPosition.getY()))

{

assertEquals(“Exit position does not match”,false);

}

//Compare the actualBoardArray with the testBoardArray.

//Size and data must match.

//Make sure the number of rows match

assertArrayEquals(“Board array read from file does not match expected array”,

expectedBoardArray,

actualBoardArray );

}

@Test

public void WriteBoardToFileTest()

{

}

@Test

public void GenerateDirectionTest()

{

}

@Test

public void MoveWarriorTest()

{

}

@Test

public void CalculateWarriorScoreTest()

{

}

@Test

public void DisplayResultsTest()

{

}   

}

Main.java

package ObstaclesWarrior;

/**

* ObstaclesWarrior

*

*/

public class Main

{

public static void main( String[] args )

{

}

public static String[][] ReadBoardFromFile(String fileName,

Position startPosition,

Position exitPosition)

{

//This code was added just to enable you to run the provided unit test.

//Replace this code with your own code.

String[][] gameBoard = {

{“0”, “#”, “#”, “#”},

{“#”, “-3”, “#”, “-5”},

{“#”, “#”, “#”, “#”},

{“#”, “#”, “-1”, “#”},

};

startPosition.setX(0);

startPosition.setY(2);

exitPosition.setX(2);

exitPosition.setY(2);

return gameBoard;

}

public static boolean WriteBoardToFile(String fileName,

String[][] boardArray)

{

return true;

}

public static int GenerateDirection()

{

return 0;

}

public static Boolean MoveWarrior(int direction,

String[][] boardArray,

Position currentPosition)

{

return true;

}

public static int CalculateWarriorScore(int currentScore,

Position currentPosition,

String[][] boardArray)

{

return 0;

}

public static String DisplayResults(int currentScore,

int numberOfMoves,

int timeElapsed,

String[][] boardArray )

{

return “”;

}

}

Position.java

package ObstaclesWarrior;

/**

* Position

*/

public class Position {

private int x;

private int y;

public Position(int xValue, int yValue) {

x = xValue;

y = yValue;

}

public int getX() {

return x;

}

public void setX(int x) {

this.x = x;

}

public int getY() {

return y;

}

public void setY(int y) {

this.y = y;

}

}

Mitigation Plan Creation

 

  • As the HU Investment Firm cybercrime expert, you are required to create a Cybercrime Mitigation Plan. The overall cybercrime mitigation plan should be written with a minimum of two to three sentence description of what the outline will cover under each section. 
  • COPY THE CONTEXT FROM UNIT 5
  • Use the following website as a guide to creating your Risk  Mitigation Plan

Keep the following structure in mind as you develop your mitigation plan. You want to avoid or transfer as much serious risk as possible and have a detailed mitigation plan for the remaining risks.

Write your formal Mitigation Plan and ensure you include the following components:

  • Understand the users and the needs of the users
  • Research what the experts say about the needed mitigation for every element. Include that support in your report.
  • Identify and evaluate recurring risks and explain in detail the plan to mitigate those risks
  • Identify and explain opportunities to improve the system in order to reduce the negative impacts of some events
  •  Propose a plan to promote collaboration and dialogue about risk management and mitigation planning
  • Ensure that your writing is professional, well-supported, and easy to understand for non-IT people

Internet Programming

 

This is an open book exam. However, each student is expected to work on it alone. Students whose solutions are the same or similar will get a grade of zero!!!

Exam time is 7:30pm to 10:50pm. Read instruction in “CPSC8720FinalExam.pdf”. Submit entire solution in zip file on blackboard before 10:50pm! Exam link will close and you wont be able to submit after that. Wrap up, zip, submit at least 5 minutes before 10:50pm! Submission passed due time will not be accepted! No Exception!

discussion

Provide a reflection of at least 500 words (or 2 pages double spaced) of how the knowledge, skills, or theories of this course have been applied, or could be applied, in a practical manner to your current work environment. If you are not currently working, share times when you have or could observe these theories and knowledge could be applied to an employment opportunity in your field of study.