public void Test_FrontBackNumerRecursive_3()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Recursive(123456789);
Assert.AreEqual(192837465, result);
}
public void Ex1Test2()
{
Exercise1 ex1 = new Exercise1();
CellPrinter cellPrinter = (CellPrinter)ex1.Method1();
Assert.AreEqual(cellPrinter.PrintPostion(1, 1), "Cell is on Position X:1 Y:1");
}
public bool AssertAbnormalDaysReturnNone()
{
return(Exercise1.Parse <DayOfWeek>("Funday")
.Match(
() => true,
val => false));
}
public void Ex1Test1()
{
Exercise1 ex1 = new Exercise1();
CellPrinter cellPrinter = (CellPrinter)ex1.Method1();
Assert.AreEqual(cellPrinter.PrintState(true, System.DateTime.Now, "red"), $"Cell red born on {System.DateTime.Now} is alive");
}
public void Ex1Methd1_position()
{
Exercise1 ex1 = new Exercise1();
CellPrinter cp = (CellPrinter)ex1.Method1();
Assert.Equal("Cell is on Position X:1 Y:1", cp.PrintPostion(1, 1));
}
public void Exercise1Method1Test3()
{
Exercise1 e1 = new Exercise1();
CellPrinter returnedObject = (CellPrinter)e1.Method1();
Assert.AreEqual(returnedObject.PrintState(true, new System.DateTime(2019, 12, 12), "red"), "Cell red born on 12.12.2019 is alive");
}
public void Ex1Methd1_notalive()
{
Exercise1 ex1 = new Exercise1();
CellPrinter cp = (CellPrinter)ex1.Method1();
Assert.Equal($"Cell red born on {System.DateTime.Now} is not alive", cp.PrintState(false, System.DateTime.Now, "red"));
}
public void Exercise1Method1Test2()
{
Exercise1 e1 = new Exercise1();
CellPrinter returnedObject = (CellPrinter)e1.Method1();
Assert.AreEqual(returnedObject.PrintPostion(1, 2), "Cell is on Position X:1 Y:2");
}
public static void Main()
{
Scene scene = new Exercise1();
OpenTKWindow window = new OpenTKWindow(scene);
window.Run();
}
public void Test_FrontBackNumerRecursive_2()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Recursive(1234567890);
Assert.AreEqual(1029384756, result);
}
public void Test_FrontBackNumbers2_3()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Solution2(1234);
Assert.AreEqual(1423, result);
}
public void Test_FrontBackNumerRecursive_1()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Recursive(123456);
Assert.AreEqual(162534, result);
}
public void Test_FrontBackNumbers2_1()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Solution2(123456789);
Assert.AreEqual(192837465, result);
}
public void Test_FrontBackNumbers2_2()
{
var numTest = new Exercise1();
var result = numTest.FrontBackNumbers_Solution2(1234567890);
Assert.AreEqual(1029384756, result);
}
public void fail30MPass()
{
var Exercise1 = new Exercise1();
bool result = Exercise1.login("user", "pass1111111111111111111111111111111");
Assert.AreEqual(false, result);
}
public void blankUser()
{
var Exercise1 = new Exercise1();
bool result = Exercise1.login("", "pass");
Assert.AreEqual(false, result);
}
public void blankPass()
{
var Exercise1 = new Exercise1();
bool result = Exercise1.login("user", "");
Assert.AreEqual(false, result);
}
public void trueLogin()
{
var Exercise1 = new Exercise1();
bool result = Exercise1.login("user", "pass");
Assert.AreEqual(true, result);
}
static void Main(string[] args)
{
/* Exercise 1
* 1. Ask from the user 6 integers, e.g. 1,2,3,4,5,6
* 2. Generate from each number a random number with limit up to this number
* e.g. -4, 0, 1, 3, 2, 5
* 3. Place these 6 random numbers to a list
* 4. Rearrange the list so the numbers are places ascending
* 5. Rearrange the list so the numbers are places descending
* 6. Show the sum of all the numbers
*/
/* Exercise 2
* 1. Use the previous list of random numbers and generate a list of random strings, e.g.
* if the list contains the number 4 then
* you should generate a random string with 4 characters
* 2. Search on every string and display the number of occurences each char occurs
* e.g. "keiwe", k:1, e:2, i:1, w:1
* 3. Show from all of the strings inside the list the top 3 chars that have the most
* occurences
*/
Exercise1 exercise1 = new Exercise1();
Exercise2 exercise2 = new Exercise2();
}
public void Exercise1Method1Test1()
{
Exercise1 e1 = new Exercise1();
CellPrinter returnedObject = (CellPrinter)e1.Method1();
CellPrinter expectedObject = new CellPrinter();
Assert.AreEqual(returnedObject.GetType(), expectedObject.GetType());
}
public void Test1()
{
var exercise1 = new Exercise1();
var method1 = exercise1.Method1();
Assert.NotNull(method1);
}
static async Task <int[, ]> DoFirst()
{
int[,] first = new int[100, 100];
int[,] second = new int[100, 100];
Random rnd = new Random();
for (int i = 0; i < 100; i++)
{
for (int j = 0; j < 100; j++)
{
first[i, j] = rnd.Next(0, 10);
second[i, j] = rnd.Next(0, 10);
}
}
return(await Exercise1.MultiplyMatrixAsync(first, second));
}
public static void MenuExercises()
{
CreateExercisesList();
Console.WriteLine("> Menu Exercises: ");
foreach (var exercise in Exercises)
{
Console.WriteLine(exercise);
}
Console.WriteLine("Write the number of the example you want to see:");
var input = Console.ReadLine();
var select = 0;
if (input == null)
{
Console.WriteLine("You must choose.");
MenuExercises();
return;
}
select = Int32.Parse(input);
switch (select)
{
case 0:
Menu();
break;
case 1:
Console.Clear();
Exercise1.Run();
break;
default:
Console.Clear();
Console.WriteLine("That exercise doesn't exist.");
MenuExercises();
break;
}
}
public DayOfWeek AssertNormalDaysWorks(string v)
{
var result = Exercise1.Parse <DayOfWeek>(v);
return(result.AsEnumerable().First());
}
public void AddPoint(Exercise1.Point3D point)
{
points.Add(point);
}
static void Main(string[] args)
{
Exercise1 exercise1 = new Exercise1();
//Exercise2 exercise2 = new Exercise2();
}
public void SetUp()
{
exercise1 = new Exercise1();
}
public static double CalculateDistance(Exercise1.Point3D point1, Exercise1.Point3D point2)
{
return Math.Sqrt(((point1.X - point2.X) * (point1.X - point2.X)) + ((point1.Y - point2.Y) * (point1.Y - point2.Y)) + ((point1.Z - point2.Z) * (point1.Z - point2.Z)));
}
private static void Main(string[] args)
{
while (true)
{
ConsoleOutput.PutInitText();
ConsoleOutput.PutExercisesText();
var key = Console.ReadKey();
switch (key.KeyChar)
{
case '1':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 1 - LFSR");
ConsoleOutput.PutCryptoDecryptoText();
var choice1 = Console.ReadKey();
switch (choice1.KeyChar)
{
case '1':
Exercise1.Encrypt();
break;
case '2':
Exercise1.Decrypt();
break;
default:
break;
}
break;
case '2':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 2 - Synchronous Stream Cipher");
ConsoleOutput.PutCryptoDecryptoText();
var choice2 = Console.ReadKey();
switch (choice2.KeyChar)
{
case '1':
Exercise2.Encrypt();
break;
case '2':
Exercise2.Decrypt();
break;
default:
break;
}
break;
case '3':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 3 - Ciphertext Autokey");
ConsoleOutput.PutCryptoDecryptoText();
var choice3 = Console.ReadKey();
switch (choice3.KeyChar)
{
case '1':
Exercise3.Encrypt();
break;
case '2':
Exercise3.Decrypt();
break;
default:
break;
}
break;
case '0':
Environment.Exit(0);
break;
default:
break;
}
Console.Clear();
}
}
private static void Main(string[] args)
{
while (true)
{
ConsoleOutput.PutInitText();
ConsoleOutput.PutExercisesText();
var key = Console.ReadKey();
switch (key.KeyChar)
{
case '1':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 1 - Rail fence");
ConsoleOutput.PutCryptoDecryptoText();
var choice1 = Console.ReadKey();
switch (choice1.KeyChar)
{
case '1':
Exercise1.Encrypt();
break;
case '2':
Exercise1.Decrypt();
break;
default:
break;
}
break;
case '2':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 2 - Przestawienia macierzowe a");
ConsoleOutput.PutCryptoDecryptoText();
var choice2 = Console.ReadKey();
switch (choice2.KeyChar)
{
case '1':
Exercise2.Encrypt();
break;
case '2':
Exercise2.Decrypt();
break;
default:
break;
}
break;
case '3':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 3 - Przestawienia macierzowe b");
ConsoleOutput.PutCryptoDecryptoText();
var choice3 = Console.ReadKey();
switch (choice3.KeyChar)
{
case '1':
Exercise3.Encrypt();
break;
case '2':
Exercise3.Decrypt();
break;
default:
break;
}
break;
case '6':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 3 - Przestawienia macierzowe c");
ConsoleOutput.PutCryptoDecryptoText();
var choice6 = Console.ReadKey();
switch (choice6.KeyChar)
{
case '1':
Exercise6.Encrypt();
break;
case '2':
Exercise6.Decrypt();
break;
default:
break;
}
break;
case '4':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 4 - Szyfrowanie cezara");
ConsoleOutput.PutCryptoDecryptoText();
var choice4 = Console.ReadKey();
switch (choice4.KeyChar)
{
case '1':
Exercise4.Encrypt();
break;
case '2':
Exercise4.Decrypt();
break;
default:
break;
}
break;
case '5':
ConsoleOutput.PutInitText();
Console.WriteLine("Zadanie 5 - Szyfrowanie Vigenere’a");
ConsoleOutput.PutCryptoDecryptoText();
var choice5 = Console.ReadKey();
switch (choice5.KeyChar)
{
case '1':
Exercise5.Encrypt();
break;
case '2':
Exercise5.Decrypt();
break;
default:
break;
}
break;
case '0':
Environment.Exit(0);
break;
default:
break;
}
Console.Clear();
}
}
static void Main(string[] args)
{
Exercise1 ex1 = new Exercise1();
Exercise2 ex2 = new Exercise2(ex1.NumberList);
}
