public JsonResult Index(int value)
{
var random = new Random();
var randomNumbers = new RandomNumbers();
if (value != 0)
{
for (int i = 0; i < value; i++)
{
randomNumbers.Numbers.Add(random.Next(1, 100));
//randomNumbers.Numbers.Add(" ");
//Thread.Sleep(1000);
}
}
var numbers = new Numbers(randomNumbers);
var jsonResult = new JsonResult() {
Data = numbers,
JsonRequestBehavior = JsonRequestBehavior.AllowGet,
};
return Json(jsonResult.Data);
//Numbers numbers = new Numbers();
//Random random = new Random();
//if (value != 0)
//{
// for (int i = 0; i < value; i++)
// {
// numbers.randomNumbers.Numbers.Add(random.Next(1,100));
// Thread.Sleep(1000);
// }
//}
//return View(numbers);
//return Json(numbers, JsonRequestBehavior.AllowGet);
}
private static void Sample5()
{
const string src = "This is the first number #{Num[0]}";
var nums = new Numbers { Num = new string[] { "1", "2", "3" } };
var interpolated = nums.InterpolateThis(src);
Print(src, interpolated);
}
public generateSequences(Numbers numbers)
{
string[] nums = numbers.getArray();
string[] signs = {"+","-","*","/" };
for (int a = 0; a < 6; a++)
{
for (int i = 0; i < 4; i++)
{
for (int b = 0; b < 6; b++)
{
if (b != a)
{
sequences.Add(nums[a]+signs[i]+nums[b]);
for (int ii = 0; ii < 4; ii++)
{
for (int c = 0; c < 6; c++)
{
if (c != b && c !=a)
{
sequences.Add(nums[a] + signs[i] + nums[b]+signs[ii]+nums[c]);
for (int iii = 0; iii < 4; iii++)
{
for (int d = 0; d < 6; d++)
{
if (d != c && d != b && d != a)
{
sequences.Add(nums[a] + signs[i] + nums[b] + signs[ii] + nums[c]+ signs[iii]+nums[d]);
for (int iiii = 0; iiii < 4; iiii++)
{
for (int e = 0; e < 6; e++)
{
if (e != d && e != c && e != b && e != a)
{
sequences.Add(nums[a] + signs[i] + nums[b] + signs[ii] + nums[c] + signs[iii] + nums[d]+signs[iiii]+nums[e]);
for (int iiiii = 0; iiiii < 4; iiiii++)
{
for (int f = 0; f < 6; f++)
{
if (f != e && f != d && f != c && f != b && f != a)
{
//this will have the number
string temp = nums[a] + signs[i] + nums[b] + signs[ii] + nums[c] + signs[iii] + nums[d] + signs[iiii] + nums[e] + signs[iiiii] + nums[f];
sequences.Add(temp);
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
}
private static void Sample8()
{
const string src = "NumA + NumB = #{NumA+NumB}";
var nums = new Numbers { Num = new[] { "1", "2" }, NumA = 1, NumB = 2 };
var interpolatables = nums.InterpolateThis(src);
Print(src, interpolatables);
}
static void Main(string[] args)
{
// Here I define all of the objects in the chain
IChain chainCalc1 = new AddNumbers();
IChain chainCalc2 = new SubtractNumbers();
IChain chainCalc3 = new MultiNumbers();
IChain chainCalc4 = new DivideNumbers();
// Here I tell each object where to forward the
// data if it can't process the request
chainCalc1.setNextChain(chainCalc2);
chainCalc2.setNextChain(chainCalc3);
chainCalc3.setNextChain(chainCalc4);
// Define the data in the Numbers Object
// and send it to the first Object in the chain
Console.WriteLine("What do you want to do (add, sub, mult, div): ");
string typeOfCalc = Console.ReadLine();
Console.WriteLine("Type in the first number: ");
int firstNumber = int.Parse(Console.ReadLine());
Console.WriteLine("Type in the second number: ");
int secondNumber = int.Parse(Console.ReadLine());
Numbers request = new Numbers(firstNumber, secondNumber, typeOfCalc);
chainCalc1.calculate(request);
Console.ReadLine();
}
private RandomGenR()
{
this.dateModule = new Dates();
this.numberModule = new Numbers();
this.collectionsModule = new Collections();
this.stringsModule = new Strings();
}
public void PartialClassesTest()
{
Numbers n = new Numbers();
Assert.AreEqual(1, n.ReturnOne());
Assert.AreEqual(2, n.ReturnTwo());
Assert.AreEqual(3, Numbers.Nested.ReturnThree());
Assert.AreEqual(4, Numbers.Nested.ReturnFour());
}
public void InitSwitchBlockExecuteTest()
{
this.m_mathOperationEnamParam = new MathOperationEnamParam();
this.m_mathOperationController = new ValidationController<Numbers>();
this.m_mathOperationController.RegisterValidator(typeof(AddBlock), () => this.m_mathOperationEnamParam);
this.m_mathOperationController.RegisterValidator(typeof(SubtractBlock), () => this.m_mathOperationEnamParam);
this.m_mathOperationController.RegisterValidator(typeof(MultiplyBlock), () => this.m_mathOperationEnamParam);
this.m_mathOperationController.RegisterValidator(typeof(DivisionBlock), () => this.m_mathOperationEnamParam);
this.m_numbers = new Numbers { Number1 = 9, Number2 = 7 };
}
// Tries to calculate the data, or passes it
// to the Object defined in method setNextChain()
public void calculate(Numbers request)
{
if (request.getCalcWanted()=="add")
{
Console.WriteLine(request.getNumber1() + " + " + request.getNumber2() + " = "+(request.getNumber1()+request.getNumber2()));
}
else
{
nextInChain.calculate(request);
}
}
public void InitSwitchBlockExecuteTest()
{
this.m_mathOperationEnamParam = new MathOperationEnamParam();
this.m_mathOperationSwitchValidators = new ValidatorList<Numbers>
{
{ typeof(AddBlock), () => this.m_mathOperationEnamParam },
{ typeof(SubtractBlock), () => this.m_mathOperationEnamParam },
{ typeof(MultiplyBlock), () => this.m_mathOperationEnamParam }
};
this.m_numbers = new Numbers { Number1 = 9, Number2 = 7 };
}
public void CanCreateASubListOfInterpolatablesWithAnExpression()
{
const string src = "Sum of #{NumA + NumB} is stored in C";
var nums = new Numbers { Num = new[] { "1", "2" }, NumA = 1, NumB = 2 };
var interpolatables = nums.InterpolatablesOf(src);
Assert.IsNotNull(interpolatables);
Assert.AreEqual(1, interpolatables.Count);
var interpolatable = interpolatables.First();
var subList = interpolatable.InterpolatablesOfExpr(nums, src);
Assert.IsNotNull(subList);
Assert.AreEqual(2, subList.Count);
}
static void Main(string[] args)
{
Console.WriteLine("Please, set a limit for the sum");
int limit = Convert.ToInt32(Console.ReadLine());
SumOfNumbersDelegate callback = new SumOfNumbersDelegate(PrintSumOfNumbers);
Numbers numbers = new Numbers(limit, callback);
Thread t1 = new Thread(new ThreadStart(numbers.SumNumbers));
t1.Start();
Console.ReadKey();
}
public void CanCreateAListOfInterpolatablesWithAnArray()
{
const string src = "This is the first number #{Num[0]}";
var nums = new Numbers { Num = new string[] { "1", "2", "3" } };
var interpolatables = nums.InterpolatablesOf(src);
Assert.IsNotNull(interpolatables);
Assert.AreEqual(1, interpolatables.Count);
var interpolatable = interpolatables.First();
Assert.AreEqual("Num[0]", interpolatable.Item);
Assert.AreEqual(nums, interpolatable.Instance);
Assert.AreEqual(InterpolatableType.Array, interpolatable.Type);
Assert.AreEqual("1", interpolatable.Value);
}
public void CanCreateAListOfInterpolatablesWithAnExpression()
{
const string src = "Sum of #{NumA + NumB} is stored in C";
var nums = new Numbers { Num = new[] { "1", "2" }, NumA = 1, NumB = 2 };
var interpolatables = nums.InterpolatablesOf(src);
Assert.IsNotNull(interpolatables);
Assert.AreEqual(1, interpolatables.Count);
var interpolatable = interpolatables.First();
Assert.AreEqual("NumA + NumB", interpolatable.Item);
Assert.AreEqual(nums, interpolatable.Instance);
Assert.AreEqual(InterpolatableType.Expression, interpolatable.Type);
Assert.AreEqual("3", interpolatable.Value);
}
public void TestResultsOf1To200()
{
Numbers n = new Numbers();
n.SendOutputEvent += new Numbers.SendOutputEventHandler(n_SendOutputEvent);
n.printNumbers(1, 200);
System.IO.FileStream fs = new System.IO.FileStream("C:\\Temp\\knownresults.txt", System.IO.FileMode.Open);
byte[] array = new byte[fs.Length];
fs.Read(array, 0, (int)fs.Length);
fs.Close();
Assert.IsFalse(System.Text.ASCIIEncoding.ASCII.GetString(array) != _output.ToString());
}
private static void Start()
{
const string exitCommand = "exit";
do
{
double temp;
var numbers = new Numbers();
Console.WriteLine("First number: ");
if (double.TryParse(Console.ReadLine(), out temp))
{
numbers.X = temp;
}
else
{
Console.WriteLine("Is not a valid number.");
continue;
}
Console.WriteLine("Second number: ");
if (double.TryParse(Console.ReadLine(), out temp))
{
numbers.Y = temp;
}
else
{
Console.WriteLine("Is not a valid number.");
continue;
}
Console.WriteLine("Introduce the operation between numbers(the operation should be one of +, -, * and /.): ");
string op = Console.ReadLine();
var controller = new CalculatorController();
ViewBase view;
try
{
view = controller.Calc(op, numbers);
}
catch (ArgumentException)
{
Console.WriteLine("Not valid operation.");
continue;
}
view.ExecuteResult();
Console.WriteLine("For exit type \"exit\".");
} while (!exitCommand.Equals(Console.ReadLine()));
}
public List<int> createList()
{
List<int> numbers = new List<int> { };
RandomNumber rand = new RandomNumber();
int i = 0;
Numbers cube = new Numbers();
int eachcube = cube.cubeint;
while (i <= eachcube)
{
i++;
int number = rand.getNewRandom();
numbers.Add(number);
}
return numbers;
}
public Grid()
{
this.BackColor = Color.FromArgb(0, Color.White);
_numbers = new Numbers(this);
this.Restore();
this.SetStyle(ControlStyles.AllPaintingInWmPaint |
ControlStyles.UserPaint |
ControlStyles.OptimizedDoubleBuffer,
true);
_propEv = new PropertyChangedEventHandler(PropertyChanged);
AppEvents.NewGame += new EventHandler(AppEvents_NewGame);
this.WatchProps();
}
public ActionResult GetNumberSeries(Numbers numbers)
{
try
{
if (ModelState.IsValid)
{
ViewBag.Message = _noSeqCalculatorService.NumericSeqResult(numbers.Number);
}
return View("index");
}
catch (Exception ex)
{
_logger.LogError(ex.Message);
return View("Index");
}
}
static void Main(string[] args)
{
Numbers n = new Numbers();
n.SendOutputEvent += new Numbers.SendOutputEventHandler(n_SendOutputEvent);
n.printNumbers(1, 200);
//Console.WriteLine(s);
//printNumbers(1, 20);
//System.IO.FileStream fs = new System.IO.FileStream("C:\\Temp\\knownresults.txt", System.IO.FileMode.CreateNew);
//byte[] array = System.Text.ASCIIEncoding.ASCII.GetBytes(_output.ToString());
//fs.Write(array, 0, array.Length);
//fs.Close();
Console.ReadLine();
}
static void Main(string[] args)
{
while (true)
{
Console.WriteLine("Enter 6 numers pressing enter after each\n");
string[] numbers = new string[6];
for (int i = 0; i < 6; i++)
{
numbers[i] = Console.ReadLine();
}
Console.WriteLine("Enter the target and then press enter\n");
int target = Convert.ToInt32(Console.ReadLine());
Numbers num = new Numbers(numbers[0],numbers[1], numbers[2], numbers[3], numbers[4], numbers[5]);
generateSequences gen = new generateSequences(num);
solver solve = new solver(gen.getSequences(), target);
foreach (string s in solve.analyseResults())
{
Console.WriteLine(s);
}
}
}
static void Main()
{
try
{
Numbers oneNumber = new Numbers(300);
}
catch (InvalidRangeException<int> ex)
{
Console.WriteLine("{0} \nmin:{1} \nmax:{2}",ex.Message,ex.Min,ex.Max);
}
Console.WriteLine();
try
{
Dates aDate = new Dates(new DateTime(2014,3,31));
}
catch (InvalidRangeException<DateTime> ex)
{
Console.WriteLine("{0} \nmin:{1} \nmax:{2}", ex.Message, ex.Min, ex.Max);
}
}
static void Main(string[] args)
{
// Way 1
Thread t1 = new Thread(new ThreadStart(Numbers.printNumbers));
// Way 2
Thread t2 = new Thread( delegate() { Numbers.printNumbers();} );
// Way 3
Thread t3 = new Thread(() => Numbers.printNumbers() );
t1.Start();
// ParameterizedThreadStart way
Console.Write("Please, Enter the target numbers");
object target = Console.ReadLine();
Numbers number = new Numbers();
ParameterizedThreadStart parameterizedThreadStart = new ParameterizedThreadStart(number.printNumbers3);
Thread t4 = new Thread(parameterizedThreadStart);
t4.Start(target);
Console.ReadKey();
}
public static void Main()
{
Numbers mylist = new Numbers();
Console.WriteLine("Please insert your first list of numbers:");
string input1 = Console.ReadLine();
var firstvalues = mylist.CreateList(input1);
//Console.WriteLine("The elements in the list are:");
//mylist.Display(firstvalues);
Console.WriteLine("Please insert your second list of numbers:");
string input2 = Console.ReadLine();
var secondvalues = mylist.CreateList(input2);
//Console.WriteLine("The elements in your second list are:");
//mylist.Display(secondvalues);
var count = firstvalues.Size();
Console.WriteLine("the size of first list is:{0}", count);
var secondcount = secondvalues.Size();
Console.WriteLine("the size of second list is:{0}", secondcount);
SingleyLinkedList addResult = mylist.AddLists(firstvalues, secondvalues);
Console.WriteLine("The addition result is:");
mylist.Display(addResult);
SingleyLinkedList subtracLists = mylist.Subtrac(firstvalues, secondvalues);
Console.WriteLine("The Subtraction result is:");
mylist.Display(subtracLists);
SingleyLinkedList multipliedLists = mylist.Multiply(firstvalues, secondvalues);
Console.WriteLine("the Multiplication bufflist result is:");
mylist.Display(multipliedLists);
Console.ReadLine();
}
public void GoldenRatio()
{
Assert.Equal(1.61803398875, NMath.Round(Numbers.GoldenRatio(), 11));
}
// GET: Home
public ActionResult Index()
{
Numbers numbers = new Numbers();
return View(numbers);
}
public object Evaluate(IDictionary <string, object> variables)
{
if (_leftHandSide == null)
{
throw new MissingParticipantException("The left hand side of the operation is missing.");
}
else if (_rightHandSide == null)
{
throw new MissingParticipantException("The right hand side of the operation is missing.");
}
// We will evaluate the left hand side but hold off on the right hand side as it may not be necessary
var lhsResult = _leftHandSide.Evaluate(variables);
var ignoreCase = ((_options & ExpressiveOptions.IgnoreCase) == ExpressiveOptions.IgnoreCase);
switch (_expressionType)
{
case BinaryExpressionType.Unknown:
break;
case BinaryExpressionType.And:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToBoolean(l) && Convert.ToBoolean(r)));
case BinaryExpressionType.Or:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToBoolean(l) || Convert.ToBoolean(r)));
case BinaryExpressionType.NotEqual:
{
object rhsResult = null;
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult != null)
{
// 2 nulls make a match!
return(true);
}
return(false);
}
else
{
rhsResult = _rightHandSide.Evaluate(variables);
// If we got here then the lhsResult is not null.
if (rhsResult == null)
{
return(true);
}
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) != 0);
}
case BinaryExpressionType.LessThanOrEqual:
{
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
return(null);
}
var rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult == null)
{
return(null);
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) <= 0);
}
case BinaryExpressionType.GreaterThanOrEqual:
{
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
return(null);
}
var rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult == null)
{
return(null);
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) >= 0);
}
case BinaryExpressionType.LessThan:
{
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
return(null);
}
var rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult == null)
{
return(null);
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) < 0);
}
case BinaryExpressionType.GreaterThan:
{
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
return(null);
}
var rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult == null)
{
return(null);
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) > 0);
}
case BinaryExpressionType.Equal:
{
object rhsResult = null;
// Use the type of the left operand to make the comparison
if (lhsResult == null)
{
rhsResult = _rightHandSide.Evaluate(variables);
if (rhsResult == null)
{
// 2 nulls make a match!
return(true);
}
return(false);
}
else
{
rhsResult = _rightHandSide.Evaluate(variables);
// If we got here then the lhsResult is not null.
if (rhsResult == null)
{
return(false);
}
}
return(Comparison.CompareUsingMostPreciseType(lhsResult, rhsResult, ignoreCase) == 0);
}
case BinaryExpressionType.Subtract:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Numbers.Subtract(l, r)));
case BinaryExpressionType.Add:
if (lhsResult is string)
{
return(((string)lhsResult) + _rightHandSide.Evaluate(variables) as string);
}
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Numbers.Add(l, r)));
case BinaryExpressionType.Modulus:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Numbers.Modulus(l, r)));
case BinaryExpressionType.Divide:
{
var rhsResult = _rightHandSide.Evaluate(variables);
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) =>
{
return (l == null || r == null || IsReal(l) || IsReal(r))
? Numbers.Divide(l, r)
: Numbers.Divide(Convert.ToDouble(l), r);
}));
}
case BinaryExpressionType.Multiply:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Numbers.Multiply(l, r)));
case BinaryExpressionType.BitwiseOr:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToUInt16(l) | Convert.ToUInt16(r)));
case BinaryExpressionType.BitwiseAnd:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToUInt16(l) & Convert.ToUInt16(r)));
case BinaryExpressionType.BitwiseXOr:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToUInt16(l) ^ Convert.ToUInt16(r)));
case BinaryExpressionType.LeftShift:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToUInt16(l) << Convert.ToUInt16(r)));
case BinaryExpressionType.RightShift:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => Convert.ToUInt16(l) >> Convert.ToUInt16(r)));
case BinaryExpressionType.NullCoalescing:
return(this.Evaluate(lhsResult, _rightHandSide, variables, (l, r) => l ?? r));
default:
break;
}
return(null);
}
public Benchmarks() : this(Numbers.Distinct(), Start.A.Selection.Of.Type <int>()
.As.Sequence.Array.By.Self.Query()
.Distinct()
.Out())
{
}
public void ThrowsAnExceptionForUnsupportedInterpolatableTypes()
{
const string src = "This is the first number #{Num[0]}";
var nums = new Numbers { Num = new string[] { "1", "2", "3" } };
var interpolatables = nums.InterpolatablesOf(src);
Assert.IsNotNull(interpolatables);
Assert.AreEqual(1, interpolatables.Count);
var interpolatable = interpolatables.First();
var subList = interpolatable.InterpolatablesOfExpr(nums, src);
}
public object Convert(object value, Type targetType, object parameter, CultureInfo culture)
{
double v = (double)value;
return(Numbers.FormatNumberWithGroupingSeparators(v));
}
public Numbers processNumbers(string message, string type)
{
if (string.IsNullOrEmpty(message))
{
return null;
}
Numbers tmpPhoneNumbers = new Numbers();
char splitChar = ';';
string[] tempArr = message.Split(splitChar);
for (int i = 0; i < tempArr.Length; i++)
{
//userInfo = dbManager.GetUser("", tempArr[i], "", "", "", "");
USER_INFO userInfo = new USER_INFO();
userInfo.phone = tempArr[i];
USER_INFO[] userInfoArr = myGlobals.dbManager.GetUser(userInfo);
if (userInfoArr.Length > 0)
{
tmpPhoneNumbers.addNumber(userInfoArr[0].type, tempArr[i]);
}
else
{
//dbManager.AddUser("", tempArr[i], "", "", "", type);
userInfo.type = type;
if (myGlobals.pocTypes.Contains(type))
myGlobals.dbManager.AddUser(userInfo);
tmpPhoneNumbers.addNumber(type, tempArr[i]);
}
}
return tmpPhoneNumbers;
}
// Use this for initialization
void Start()
{
BroadcastMessage("TestBroadCast");
numbers += Sing;
numbers += SingPartTwo;
}
public override object Evaluate(IDictionary <string, object> variables) => Numbers.Subtract(0, this.expression.Evaluate(variables));
private LiveryIconEditor(CarSkinObject skin, bool quickMode, bool randomMode)
{
_quickMode = quickMode;
Skin = skin;
DataContext = this;
InitializeComponent();
if (randomMode)
{
SelectedShape = Shapes.RandomElement();
}
else
{
SelectedShape = Shapes.GetByIdOrDefault(ValuesStorage.GetString(KeyShape)) ?? Shapes.FirstOrDefault();
}
SelectedStyle = Styles.GetByIdOrDefault(ValuesStorage.GetString(KeyStyle)) ?? Styles.FirstOrDefault();
SelectedNumbers = string.IsNullOrWhiteSpace(skin.SkinNumber) || skin.SkinNumber == @"0"
? Numbers.FirstOrDefault() : Numbers.GetByIdOrDefault(ValuesStorage.GetString(KeyNumbers)) ?? Numbers.FirstOrDefault();
Buttons = new[] { OkButton, CancelButton };
Model.Value = string.IsNullOrWhiteSpace(skin.SkinNumber) ? @"0" : skin.SkinNumber;
Model.TextColorValue = Colors.White;
try {
using (var bitmap = Image.FromFile(skin.PreviewImage)) {
var colors = ImageUtils.GetBaseColors((Bitmap)bitmap);
Model.ColorValue = colors.Select(x => (System.Drawing.Color?)x).FirstOrDefault()?.ToColor() ?? Colors.White;
Model.SecondaryColorValue = colors.Select(x => (System.Drawing.Color?)x).ElementAtOrDefault(1)?.ToColor() ?? Colors.Black;
Model.TertiaryColorValue = colors.Select(x => (System.Drawing.Color?)x).ElementAtOrDefault(2)?.ToColor() ?? Colors.Black;
}
} catch (Exception e) {
Logging.Warning("Can’t find base colors: " + e);
Model.ColorValue = Colors.White;
Model.SecondaryColorValue = Colors.Black;
Model.TertiaryColorValue = Colors.Black;
}
}
public Sabores()
{
Number = new Numbers();
}
private string WtDisplay(double weightKg)
{
var factor = elem.WeightUnitCBox.SelectedIndex == 0 ? 1.0 : Constants.KgLbRatio;
return(Numbers.RoundToInt(weightKg * factor).ToString());
}
public void GetWord_GetOneNumberFromUser_Word()
{
Assert.AreEqual("One", Numbers.GetWord("1"));
}
public void GetWord_GetTwoNumbersFromUser_Word()
{
Assert.AreEqual("Nineteen", Numbers.GetWord("19"));
}
private int LengthConvertUnit(double lengthMeter, LengthUnit unit)
{
return(Numbers.RoundToInt(unit == LengthUnit.Feet ?
lengthMeter * MeterFtRatio : lengthMeter));
}
private int TempConvertUnit(double tempCelsuis, TemperatureUnit tempUnit)
{
return(Numbers.RoundToInt(tempUnit == TemperatureUnit.Fahrenheit ?
ConversionTools.ToFahrenheit(tempCelsuis) : tempCelsuis));
}
public void IsPositiveSign_Double_Custom_Tolerance(double number, double tolerance, bool expected)
{
Assert.Equal(expected, Numbers.IsPositiveSign(number, tolerance));
}
public override void Visit(BinaryExpression expression)
{
// simulate Lazy<Func<>> behavior for late evaluation
object leftValue = null;
Func <object> left = () =>
{
if (leftValue == null)
{
expression.LeftExpression.Accept(this);
leftValue = Result;
}
return(leftValue);
};
// simulate Lazy<Func<>> behavior for late evaluation
object rightValue = null;
Func <object> right = () =>
{
if (rightValue == null)
{
expression.RightExpression.Accept(this);
rightValue = Result;
}
return(rightValue);
};
switch (expression.Type)
{
case BinaryExpressionType.And:
Result = Convert.ToBoolean(left()) && Convert.ToBoolean(right());
break;
case BinaryExpressionType.Or:
Result = Convert.ToBoolean(left()) || Convert.ToBoolean(right());
break;
case BinaryExpressionType.Div:
Result = IsReal(left()) || IsReal(right())
? Numbers.Divide(left(), right())
: Numbers.Divide(Convert.ToDouble(left()), right());
break;
case BinaryExpressionType.Equal:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) == 0;
break;
case BinaryExpressionType.Greater:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) > 0;
break;
case BinaryExpressionType.GreaterOrEqual:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) >= 0;
break;
case BinaryExpressionType.Lesser:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) < 0;
break;
case BinaryExpressionType.LesserOrEqual:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) <= 0;
break;
case BinaryExpressionType.Minus:
Result = Numbers.Soustract(left(), right());
break;
case BinaryExpressionType.Modulo:
Result = Numbers.Modulo(left(), right());
break;
case BinaryExpressionType.NotEqual:
// Use the type of the left operand to make the comparison
Result = CompareUsingMostPreciseType(left(), right()) != 0;
break;
case BinaryExpressionType.Plus:
if (left() is string)
{
Result = String.Concat(left(), right());
}
else
{
Result = Numbers.Add(left(), right());
}
break;
case BinaryExpressionType.Times:
Result = Numbers.Multiply(left(), right());
break;
case BinaryExpressionType.BitwiseAnd:
Result = Convert.ToUInt16(left()) & Convert.ToUInt16(right());
break;
case BinaryExpressionType.BitwiseOr:
Result = Convert.ToUInt16(left()) | Convert.ToUInt16(right());
break;
case BinaryExpressionType.BitwiseXOr:
Result = Convert.ToUInt16(left()) ^ Convert.ToUInt16(right());
break;
case BinaryExpressionType.LeftShift:
Result = Convert.ToUInt16(left()) << Convert.ToUInt16(right());
break;
case BinaryExpressionType.RightShift:
Result = Convert.ToUInt16(left()) >> Convert.ToUInt16(right());
break;
}
}
/// <summary> /// Returns true if x is zero, otherwise false. /// </summary> /// <param name="n">Object to test.</param> /// <returns> /// Returns true if x is zero, otherwise false. /// </returns> public object Invoke(object n) => Numbers.IsZero(n);
public override int Calculate() => Numbers.Where(x => x % 2 == 0).Sum();
public IActionResult Post([FromBody] Numbers numbers)
{
return(Ok(new { sum = numbers.Values.Sum() }));
}
public void Can_serialize_date_to_unix_timestamp()
{
var target = new Numbers(new DateTime(2012, 5, 26, 0, 0, 0, DateTimeKind.Utc));
target.Timestamp.Should().HaveValue();
target.Timestamp.Should().Be(1337990400);
}
private static ulong Solution()
{
return(Numbers.FindLargestPalindromeMadeFromProductOf(3));
}
public void Can_set_date_which_sets_timestamp()
{
var target = new Numbers { Date = new DateTime(2012, 5, 26, 0, 0, 0, DateTimeKind.Utc), Value = 3 };
target.Timestamp.Should().HaveValue();
target.Timestamp.Should().Be(1337990400);
string result = Serializer.Serialize(target);
result.Should().NotBeNull();
}
public void NumbersTests(string firstNum, string secondNum, string strExpected)
{
Assert.AreEqual(Numbers.Sum(firstNum, secondNum), strExpected);
}
public void TestForExample()
{
Assert.AreEqual(55, Numbers.GetStringValue("SKY"));
Assert.IsTrue(Numbers.IsTriangleNumber(55));
}
public void Can_serialize_value_properly()
{
var target = new Numbers { Value = 3.5m };
string result = Serializer.Serialize(target);
result.Should().NotBeNullOrEmpty();
}
public override void Visit(Function function)
{
var args = new FunctionArgs
{
Parameters = new Expression[function.Expressions.Length]
};
// Don't call parameters right now, instead let the function do it as needed.
// Some parameters shouldn't be called, for instance, in a if(), the "not" value might be a division by zero
// Evaluating every value could produce unexpected behaviour
for (int i = 0; i < function.Expressions.Length; i++)
{
args.Parameters[i] = new Expression(function.Expressions[i], options);
args.Parameters[i].EvaluateFunction += EvaluateFunction;
args.Parameters[i].EvaluateParameter += EvaluateParameter;
// Assign the parameters of the Expression to the arguments so that custom Functions and Parameters can use them
args.Parameters[i].Parameters = Parameters;
}
// Calls external implementation
OnEvaluateFunction(options.IgnoreCase() ? function.Identifier.Name.ToLower() : function.Identifier.Name, args);
// If an external implementation was found get the result back
if (args.HasResult)
{
Result = args.Result;
return;
}
switch (function.Identifier.Name.ToLower())
{
#region Abs
case "abs":
CheckCase("Abs", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Abs() takes exactly 1 argument");
}
Result = Math.Abs(Convert.ToDecimal(
Evaluate(function.Expressions[0]))
);
break;
#endregion Abs
#region Acos
case "acos":
CheckCase("Acos", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Acos() takes exactly 1 argument");
}
Result = Math.Acos(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Acos
#region Asin
case "asin":
CheckCase("Asin", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Asin() takes exactly 1 argument");
}
Result = Math.Asin(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Asin
#region Atan
case "atan":
CheckCase("Atan", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Atan() takes exactly 1 argument");
}
Result = Math.Atan(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Atan
#region Ceiling
case "ceiling":
CheckCase("Ceiling", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Ceiling() takes exactly 1 argument");
}
Result = Math.Ceiling(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Ceiling
#region Cos
case "cos":
CheckCase("Cos", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Cos() takes exactly 1 argument");
}
Result = Math.Cos(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Cos
#region Exp
case "exp":
CheckCase("Exp", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Exp() takes exactly 1 argument");
}
Result = Math.Exp(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Exp
#region Floor
case "floor":
CheckCase("Floor", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Floor() takes exactly 1 argument");
}
Result = Math.Floor(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Floor
#region IEEERemainder
case "ieeeremainder":
CheckCase("IEEERemainder", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("IEEERemainder() takes exactly 2 arguments");
}
Result = Math.IEEERemainder(Convert.ToDouble(Evaluate(function.Expressions[0])), Convert.ToDouble(Evaluate(function.Expressions[1])));
break;
#endregion IEEERemainder
#region Log
case "log":
CheckCase("Log", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("Log() takes exactly 2 arguments");
}
Result = Math.Log(Convert.ToDouble(Evaluate(function.Expressions[0])), Convert.ToDouble(Evaluate(function.Expressions[1])));
break;
#endregion Log
#region Log10
case "log10":
CheckCase("Log10", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Log10() takes exactly 1 argument");
}
Result = Math.Log10(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Log10
#region Pow
case "pow":
CheckCase("Pow", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("Pow() takes exactly 2 arguments");
}
Result = Math.Pow(Convert.ToDouble(Evaluate(function.Expressions[0])), Convert.ToDouble(Evaluate(function.Expressions[1])));
break;
#endregion Pow
#region Round
case "round":
CheckCase("Round", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("Round() takes exactly 2 arguments");
}
MidpointRounding rounding = options.RoundAwayFromZero() ? MidpointRounding.AwayFromZero : MidpointRounding.ToEven;
Result = Math.Round(Convert.ToDouble(Evaluate(function.Expressions[0])), Convert.ToInt16(Evaluate(function.Expressions[1])), rounding);
break;
#endregion Round
#region Sign
case "sign":
CheckCase("Sign", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Sign() takes exactly 1 argument");
}
Result = Math.Sign(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Sign
#region Sin
case "sin":
CheckCase("Sin", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Sin() takes exactly 1 argument");
}
Result = Math.Sin(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Sin
#region Sqrt
case "sqrt":
CheckCase("Sqrt", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Sqrt() takes exactly 1 argument");
}
Result = Math.Sqrt(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Sqrt
#region Tan
case "tan":
CheckCase("Tan", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Tan() takes exactly 1 argument");
}
Result = Math.Tan(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Tan
#region Truncate
case "truncate":
CheckCase("Truncate", function.Identifier.Name);
if (function.Expressions.Length != 1)
{
throw new ArgumentException("Truncate() takes exactly 1 argument");
}
Result = Math.Truncate(Convert.ToDouble(Evaluate(function.Expressions[0])));
break;
#endregion Truncate
#region Max
case "max":
CheckCase("Max", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("Max() takes exactly 2 arguments");
}
object maxleft = Evaluate(function.Expressions[0]);
object maxright = Evaluate(function.Expressions[1]);
Result = Numbers.Max(maxleft, maxright);
break;
#endregion Max
#region Min
case "min":
CheckCase("Min", function.Identifier.Name);
if (function.Expressions.Length != 2)
{
throw new ArgumentException("Min() takes exactly 2 arguments");
}
object minleft = Evaluate(function.Expressions[0]);
object minright = Evaluate(function.Expressions[1]);
Result = Numbers.Min(minleft, minright);
break;
#endregion Min
#region if
case "if":
CheckCase("if", function.Identifier.Name);
if (function.Expressions.Length != 3)
{
throw new ArgumentException("if() takes exactly 3 arguments");
}
bool cond = Convert.ToBoolean(Evaluate(function.Expressions[0]));
Result = cond ? Evaluate(function.Expressions[1]) : Evaluate(function.Expressions[2]);
break;
#endregion if
#region in
case "in":
CheckCase("in", function.Identifier.Name);
if (function.Expressions.Length < 2)
{
throw new ArgumentException("in() takes at least 2 arguments");
}
object parameter = Evaluate(function.Expressions[0]);
bool evaluation = false;
// Goes through any values, and stop whe one is found
for (int i = 1; i < function.Expressions.Length; i++)
{
object argument = Evaluate(function.Expressions[i]);
if (CompareUsingMostPreciseType(parameter, argument) == 0)
{
evaluation = true;
break;
}
}
Result = evaluation;
break;
#endregion in
default:
throw new ArgumentException("Function not found",
function.Identifier.Name);
}
}
public void convert()
{
LogicValuesNumbersConverter converter = new LogicValuesNumbersConverter();
ILineCollection lines = BaseLineCollection.createLineCollection(3);
// 000
int linesCount = lines.Size;
for (int i = 0; i < linesCount; ++i)
{
lines[i] = new Line();
}
//000
lines[0].Value = LogicValue.Enum.Low;
lines[1].Value = LogicValue.Enum.Low;
lines[2].Value = LogicValue.Enum.Low;
Numbers result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 1);
Assert.AreEqual(result[0], 0);
// 111
lines[0].Value = LogicValue.Enum.High;
lines[1].Value = LogicValue.Enum.High;
lines[2].Value = LogicValue.Enum.High;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 1);
Assert.AreEqual(result[0], 7);
// 00X
lines[0].Value = LogicValue.Enum.DontCare;
lines[1].Value = LogicValue.Enum.Low;
lines[2].Value = LogicValue.Enum.Low;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 2);
Assert.IsTrue(result.Contains(0));
Assert.IsTrue(result.Contains(1));
// 0X0
lines[0].Value = LogicValue.Enum.Low;
lines[1].Value = LogicValue.Enum.DontCare;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 2);
Assert.IsTrue(result.Contains(0));
Assert.IsTrue(result.Contains(2));
// X00
lines[1].Value = LogicValue.Enum.Low;
lines[2].Value = LogicValue.Enum.DontCare;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 2);
Assert.IsTrue(result.Contains(0));
Assert.IsTrue(result.Contains(4));
// XX0
lines[1].Value = LogicValue.Enum.DontCare;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 4);
Assert.IsTrue(result.Contains(0));
Assert.IsTrue(result.Contains(2));
Assert.IsTrue(result.Contains(4));
Assert.IsTrue(result.Contains(6));
// XXX
lines[0].Value = LogicValue.Enum.DontCare;
result = converter.toNumbers(lines, 0, 2);
Assert.AreEqual(result.Count, 8);
Assert.IsTrue(result.Contains(0));
Assert.IsTrue(result.Contains(1));
Assert.IsTrue(result.Contains(2));
Assert.IsTrue(result.Contains(3));
Assert.IsTrue(result.Contains(4));
Assert.IsTrue(result.Contains(5));
Assert.IsTrue(result.Contains(6));
Assert.IsTrue(result.Contains(7));
}
public static string GeneratePassword(int length = 10)
{
const string NonAlphanumericCharacters = "#!%$";
const string Numbers = "1234567890";
const string AlphanumericCharactersLowercase = "abcdefghijklmnopqrstuvwxyz";
const string AlphanumericCharactersUppercase = "ABCDEFGHIJKLMNOPQRSTUVWXYZ";
const string Valid = "abcdefghijklmnopqrstuvwxyzABCDEFGHIJKLMNOPQRSTUVWXYZ1234567890";
bool hasUppercase = false;
bool hasLowercase = false;
bool hasNumbers = false;
bool hasNonAlphanumeric = false;
var stringBuilder = new StringBuilder();
while (0 < length--)
{
var character = Valid[_cryptoRandom.Next(Valid.Length)];
stringBuilder.Append(character);
if (NonAlphanumericCharacters.Contains(character))
{
hasNonAlphanumeric = true;
}
if (AlphanumericCharactersLowercase.Contains(character))
{
hasLowercase = true;
}
if (AlphanumericCharactersUppercase.Contains(character))
{
hasUppercase = true;
}
if (Numbers.Contains(character))
{
hasNumbers = true;
}
}
if (!hasLowercase)
{
stringBuilder.Append(AlphanumericCharactersLowercase[_cryptoRandom.Next(AlphanumericCharactersLowercase.Length)]);
}
if (!hasUppercase)
{
stringBuilder.Append(AlphanumericCharactersUppercase[_cryptoRandom.Next(AlphanumericCharactersUppercase.Length)]);
}
if (!hasNonAlphanumeric)
{
stringBuilder.Append(NonAlphanumericCharacters[_cryptoRandom.Next(NonAlphanumericCharacters.Length)]);
}
if (!hasNumbers)
{
stringBuilder.Append(Numbers[_cryptoRandom.Next(Numbers.Length)]);
}
return(stringBuilder.ToString());
}