private List <Point[]> CalculateContiniousPath()
{
const float MAX_DISTANCE = 100;
const float PATH_STEP = 1f;
var objects = world.Objects.Select(x => x.Clone()).ToList();
//objects.Add(launchObject);
var objectsPath = new Dictionary <GravityObject, List <Point> >();
for (var i = 0f; i < MAX_DISTANCE; i += PATH_STEP)
{
foreach (var obj in objects)
{
if (!objectsPath.ContainsKey(obj))
{
objectsPath.Add(obj, new List <Point>());
}
objectsPath[obj].Add(new Point((int)obj.Position.X, (int)obj.Position.Y));
PhysicsController.CalcStepFor(obj, objects, PATH_STEP);
obj.Position += obj.Velocity * PATH_STEP;
}
}
return(objectsPath.Select(x => x.Value.ToArray()).ToList());
}
private Point[] CalculatePath(Point position)
{
const float MAX_DISTANCE = 1000;
const float PATH_STEP = 5f;
var path = new List <Point>();
launchObject.Position = new Vector2(position.X, position.Y);
launchObject.Velocity.X = launchSpeed;
for (var i = 0f; i < MAX_DISTANCE; i += PATH_STEP)
{
path.Add(new Point((int)launchObject.Position.X, (int)launchObject.Position.Y));
PhysicsController.CalcStepFor(launchObject, world.Objects, PATH_STEP);
launchObject.Position += launchObject.Velocity * PATH_STEP;
}
launchObject.Position = new Vector2();
launchObject.Velocity = new Vector2();
return(path.ToArray());
}