//Display info on the nearest anomaly *Need to separate the BTDT display*
private void anomalyInfo(int id)
{
if ((sensors & SCANtype.AnomalyDetail) != SCANtype.Nothing)
{
SCANanomaly nearest = null;
double nearest_dist = -1;
foreach (SCANanomaly a in data.Anomalies)
{
if (!a.Known)
{
continue;
}
double d = (a.Mod.transform.position - v.transform.position).magnitude;
if (d < nearest_dist || nearest_dist < 0)
{
if (d < 50000)
{
nearest = a;
nearest_dist = d;
}
}
}
if (nearest != null)
{
string txt = "Anomaly";
if (nearest.Detail)
{
txt = nearest.Name;
}
txt += ": " + SCANuiUtil.distanceString(nearest_dist, 5000);
GUILayout.Label(txt, SCANskins.SCAN_insColorLabel);
if (anomalyView == null)
{
anomalyView = new SCANremoteView();
}
if (anomalyView != null)
{
if (nearest.Mod != null)
{
if (anomalyView.lookat != nearest.Mod.gameObject)
{
anomalyView.setup(320, 240, nearest.Mod.gameObject);
}
Texture t = anomalyView.getTexture();
if (t != null)
{
GUILayout.Label(anomalyView.getTexture());
anomalyView.drawOverlay(GUILayoutUtility.GetLastRect(), SCANskins.SCAN_anomalyOverlay, nearest.Detail);
}
}
}
}
}
}
//Display the current vessel altitude
private void altInfo(int id)
{
if ((sensors & SCANtype.Altimetry) != SCANtype.Nothing)
{
double h = v.altitude;
double pqs = 0;
if (v.mainBody.pqsController != null)
{
pqs = v.PQSAltitude();
if (pqs > 0 || !v.mainBody.ocean)
{
h -= pqs;
}
}
if (h < 0)
{
h = v.altitude;
}
if (v.situation == Vessel.Situations.LANDED || v.situation == Vessel.Situations.SPLASHED || v.situation == Vessel.Situations.PRELAUNCH)
{
GUILayout.Label(string.Format("Terrain: {0:N1}m", pqs), SCANskins.SCAN_insColorLabel);
}
else
{
GUILayout.Label(string.Format("Altitude: {0}", SCANuiUtil.distanceString(h, 100000)), SCANskins.SCAN_insColorLabel);
}
fillS(-10);
//Calculate slope less frequently; the rapidly changing value makes it difficult to read otherwise
if (v.mainBody.pqsController != null)
{
float deltaTime = 1f;
if (Time.deltaTime != 0)
{
deltaTime = TimeWarp.deltaTime / Time.deltaTime;
}
if (deltaTime > 5)
{
deltaTime = 5;
}
if (((Time.time * deltaTime) - lastUpdate) > updateInterval)
{
lastUpdate = Time.time;
/* Slope is calculated using a nine point grid centered 5m around the vessel location
* The rise between the vessel location's elevation and each point on the grid is calculated, converted to slope in degrees, and averaged;
* Note: Averageing is not the most accurate method
*/
double latOffset = degreeOffset * Math.Cos(Mathf.Deg2Rad * vlat);
double[] e = new double[9];
double[] s = new double[8];
e[0] = pqs;
e[1] = SCANUtil.getElevation(v.mainBody, vlon + latOffset, vlat);
e[2] = SCANUtil.getElevation(v.mainBody, vlon - latOffset, vlat);
e[3] = SCANUtil.getElevation(v.mainBody, vlon, vlat + degreeOffset);
e[4] = SCANUtil.getElevation(v.mainBody, vlon, vlat - degreeOffset);
e[5] = SCANUtil.getElevation(v.mainBody, vlon + latOffset, vlat + degreeOffset);
e[6] = SCANUtil.getElevation(v.mainBody, vlon + latOffset, vlat - degreeOffset);
e[7] = SCANUtil.getElevation(v.mainBody, vlon - latOffset, vlat + degreeOffset);
e[8] = SCANUtil.getElevation(v.mainBody, vlon - latOffset, vlat - degreeOffset);
/* Calculate rise for each point on the grid
* The distance is 5m for adjacent points and 7.071m for the points on the corners
* Rise is converted to slope; i.e. a 5m elevation change over a 5m distance is a rise of 1
* Converted to slope using the inverse tangent this gives a slope of 45°
* */
for (int i = 1; i <= 4; i++)
{
s[i - 1] = Math.Atan((Math.Abs(e[i] - e[0])) / 5) * Mathf.Rad2Deg;
}
for (int i = 5; i <= 8; i++)
{
s[i - 1] = Math.Atan((Math.Abs(e[i] - e[0])) / 7.071) * Mathf.Rad2Deg;
}
slopeAVG = s.Sum() / 8;
}
GUILayout.Label(string.Format("Slope: {0:F2}°", slopeAVG), SCANskins.SCAN_insColorLabel);
fillS(-10);
}
}
}