public void AddAtom(Atom atom, int quantity = 1)
{
if (!this._atoms.Contains(atom))
{
this._atoms.Add(atom);
this._atomQuantities.Add(quantity);
}
else
{
int index = this._atoms.IndexOf(atom);
this._atomQuantities[index] += quantity;
}
}
public void Show(Atom atom)
{
this._atomDescription.AlphaRate = 0;
this._atomElectronegativityText.AlphaRate = 0;
this._atomNameText.AlphaRate = 0;
this._atomValenceText.AlphaRate = 0;
this._background.AlphaRate = 0;
this._atomDescription.Alpha = 1;
this._atomElectronegativityText.Alpha = 1;
this._atomNameText.Alpha = 1;
this._atomValenceText.Alpha = 1;
this._background.Alpha = 1;
this._atomDescription.DisplayText = atom.Description;
this._atomDescription.InsertNewLines((this._background.ScaleX * 2) - 45); // -45 to avoid touching the border
this._atomElectronegativityText.DisplayText = string.Format("E: {0}", atom.Electronegativity);
this._atomNameText.DisplayText = atom.Name;
this._atomValenceText.DisplayText = string.Format("Valence: {0}", atom.IonCharge);
}
public void PickNextAtom()
{
this._nextAtom = this._toolbox.GetNextAtom();
}
private bool tileFollowsDifficultyBalancingAlgorithm(Tile current, Atom proposedAtom)
{
IList<Tile> adjacents = this.getNonEmptyAdjacentTiles(current);
if (adjacents.Count == 0)
{
return true;
}
else
{
IList<Tile> oppositeValence;
if (proposedAtom.IonCharge > 0)
{
oppositeValence = adjacents.Where(t => t.Atom.IonCharge < 0).ToList();
}
else
{
oppositeValence = adjacents.Where(t => t.Atom.IonCharge > 0).ToList();
}
// Fail if 50% or more of atoms are opposite valence
if (oppositeValence.Count >= 0.5 * adjacents.Count)
{
return false;
}
else
{
return true;
}
}
}
public Tile(Atom atom, Sprite atomSprite, Text atomText)
{
this._atom = atom;
this._atomSprite = atomSprite;
this._atomText = atomText;
}
internal void Empty()
{
this._atom = Atom.NONE;
}