public void ListController(object sender, PlaneDetectorEventArgs e)
{
// If no previous data is present it has no base from which to calculate the velocity and the course, so the function returns
if (flightDataListOld.Count <= 0)
{
flightDataListOld = e.PlanesInAirspace;
return;
}
List <FlightData> listToReturn = new List <FlightData>();
// Calculates the course and velocity based on the new flight data that has been sent and the previously sent data
listToReturn = Calculator.CalculateCompassCourse(flightDataListOld, e.PlanesInAirspace);
try
{
listToReturn = Calculator.CalculateVelocity(flightDataListOld, e.PlanesInAirspace);
}
catch (ArgumentException exception)
{
Console.WriteLine(exception);
//There should be some error handling here
}
render.DisplayData(listToReturn); // Displays the data after it has been calculated
flightDataListOld = e.PlanesInAirspace; // The new flight data has been calculated and displayed and now replaces the old flight data
}
public void OnPlaneDetectorEvent(object sender, PlaneDetectorEventArgs e)
{
for (int i = 0; i < e.PlanesInAirspace.Count; i++) // Iterates through each plane in the list sent from AirSpacePlaneDetector
{
for (int j = i + 1; j < e.PlanesInAirspace.Count; j++) // Iterates through the remainder of the planes in the list
{
// Checks if the distance between two planes is within the specified distance of each other
if ((Calculator.HorizontalDistance(e.PlanesInAirspace[i], e.PlanesInAirspace[j]) < 300) &&
(Calculator.VerticalDistance(e.PlanesInAirspace[i], e.PlanesInAirspace[j]) < 5000))
{
// Displays and alarm in the console window and adds an occurence to the log
renderer.DisplayAlarm();
logger.Log(e.PlanesInAirspace[i], e.PlanesInAirspace[j]);
return;
}
}
}
}
private void OnAirplaneDetected(PlaneDetectorEventArgs args)
{
AirplaneDetected?.Invoke(this, args);
}