Example #1
0
        public static InformationPacket Update(Puck p, Puck c, Table table, double delta_time)
        {
            double offset = p.Velocity.Speed * delta_time;
            double x      = offset * Math.Cos(p.Velocity.Direction);
            double y      = offset * Math.Sin(p.Velocity.Direction);
            PointD ghost_puck_location = p.Location.Offset(x, y);

            //Collect debugging information as we loop through the collision algorithm
            InformationPacket info = new InformationPacket();

            info.Points.Add(ghost_puck_location);

            //Collision correction
            CollisionData data;

            while ((data = GetClosestCollisionData(p, offset, ghost_puck_location, c, table)) != null)
            {
                p.Location           = data.collision_point;
                p.Velocity.Direction = p.Velocity.Direction.Reflect(data.projection_line.Perpendicular(data.collision_point).Angle) + Angle._180;

                PointD translation_reflection_point = data.projection_line.IntersectionWith(data.projection_line.Perpendicular(ghost_puck_location));
                ghost_puck_location = translation_reflection_point.Offset(translation_reflection_point.X - ghost_puck_location.X, translation_reflection_point.Y - ghost_puck_location.Y);
                offset = ghost_puck_location.DistanceTo(p.Location);

                if (energy_loss_enabled)
                {
                    p.Velocity.Speed *= .8;
                }

                info.Points.Add(ghost_puck_location);
            }

            //Shazam (physics calculations are complete)
            p.Location = ghost_puck_location;

            if (energy_loss_enabled)
            {
                p.Velocity.Speed -= delta_time * table.Friction;
                if (p.Velocity.Speed < 0)
                {
                    p.Velocity.Speed = 0;
                }
            }

            return(info);
        }
Example #2
0
        public static InformationPacket Update(Puck p, Puck c, Table table, double delta_time)
        {
            double offset = p.Velocity.Speed * delta_time;
            double x = offset * Math.Cos(p.Velocity.Direction);
            double y = offset * Math.Sin(p.Velocity.Direction);
            PointD ghost_puck_location = p.Location.Offset(x, y);

            //Collect debugging information as we loop through the collision algorithm
            InformationPacket info = new InformationPacket();
            info.Points.Add(ghost_puck_location);

            //Collision correction
            CollisionData data;
            while ((data = GetClosestCollisionData(p, offset, ghost_puck_location, c, table)) != null) {
                p.Location = data.collision_point;
                p.Velocity.Direction = p.Velocity.Direction.Reflect(data.projection_line.Perpendicular(data.collision_point).Angle) + Angle._180;

                PointD translation_reflection_point = data.projection_line.IntersectionWith(data.projection_line.Perpendicular(ghost_puck_location));
                ghost_puck_location = translation_reflection_point.Offset(translation_reflection_point.X - ghost_puck_location.X, translation_reflection_point.Y - ghost_puck_location.Y);
                offset = ghost_puck_location.DistanceTo(p.Location);

                if (energy_loss_enabled)
                    p.Velocity.Speed *= .8;

                info.Points.Add(ghost_puck_location);
            }

            //Shazam (physics calculations are complete)
            p.Location = ghost_puck_location;

            if (energy_loss_enabled) {
                p.Velocity.Speed -= delta_time * table.Friction;
                if (p.Velocity.Speed < 0) { p.Velocity.Speed = 0; }
            }

            return info;
        }