public void EntryLevel()
{
// Roll a standard cubic die one time:
var d6 = new Die(6);
var roll = d6.Roll();
// Roll an interval die from 10 to 20 four times:
var interval10t20 = new Die(10, 20);
roll = interval10t20.Roll(4).Sum();
// There is also a fixed die, which always returns the same value.
// It's useful when something expects IDie as value provider and you want to pass a constant value:
var fixed50 = new FixedDie(50);
// Roll two d10's:
var d2d10 = new SeveralDice(Dice.D10, 2);
roll = d2d10.Roll(); // Compared to simple Dice.D10.Roll(2), SeveralDice provides statistics and serialization
Console.WriteLine("Possible roll value range: " + d2d10.Minimum + " to " + d2d10.Maximum);
// Roll a d4d10 / d2 * 3:
var d4d10divD2mul3 = Dice.Take(Dice.D4).D(10).Divide(Dice.D2).Multiply(3); // This is a dice chain.
// Math operations in dice chains are always executed from left to right, so this chain translates to:
// take a 1-4 of d10 dice and divide their roll value by 2 with 50 % chance, then multiply resulting roll value by 3.
roll = d4d10divD2mul3.Roll();
// Dice chains also provide statistics and serialization.
// This chain was created via fluent interface, but it is also possible to create such chain in a more explicit way:
d4d10divD2mul3 = new DiceChain(
new SeveralDice(new Die(10), new Die(4))) // d4d10
.Append(DiceOperation.Divide, new SeveralDice(2)) // / 2
.Append(DiceOperation.Multiply, new SeveralDice(3)); // * 3
// Oh, and where is a random number generator? Built-in dice get it from thread-local `Dice.Random`.
}
public void EntryLevel()
{
// Roll a standard cubic die one time:
var d6 = new Die(6);
var roll = d6.Roll();
// Roll an interval die from 10 to 20 four times:
var interval10t20 = new Die(10, 20);
roll = interval10t20.Roll(4).Sum();
// There is also a fixed die, which always returns the same value.
// It's useful when something expects IDie as value provider and you want to pass a constant value:
var fixed50 = new FixedDie(50);
// Roll two d10's:
var d2d10 =new SeveralDice(Dice.D10, 2);
roll = d2d10.Roll(); // Compared to simple Dice.D10.Roll(2), SeveralDice provides statistics and serialization
Console.WriteLine("Possible roll value range: " + d2d10.Minimum + " to " + d2d10.Maximum);
// Roll a d4d10 / d2 * 3:
var d4d10divD2mul3 = Dice.Take(Dice.D4).D(10).Divide(Dice.D2).Multiply(3); // This is a dice chain.
// Math operations in dice chains are always executed from left to right, so this chain translates to:
// take a 1-4 of d10 dice and divide their roll value by 2 with 50 % chance, then multiply resulting roll value by 3.
roll = d4d10divD2mul3.Roll();
// Dice chains also provide statistics and serialization.
// This chain was created via fluent interface, but it is also possible to create such chain in a more explicit way:
d4d10divD2mul3 = new DiceChain(
new SeveralDice(new Die(10), new Die(4))) // d4d10
.Append(DiceOperation.Divide, new SeveralDice(2)) // / 2
.Append(DiceOperation.Multiply, new SeveralDice(3)); // * 3
// Oh, and where is a random number generator? Built-in dice get it from thread-local `Dice.Random`.
}
