void getOptimalPointOfSail()
{
if (posAngle < pointsOfSail.dataArray[5].Rangemin || posAngle > pointsOfSail.dataArray[6].Rangemax)
{
irons = true;
}
//assign point of sail
for (int i = 0; i < pointsOfSail.dataArray.Length; i++)
{
if (pointsOfSail.dataArray[i].Rangemin <= posAngle && posAngle <= pointsOfSail.dataArray[i].Rangemax)
{
irons = false;
currentPointOfSail = pointsOfSail.dataArray[i];
optimalSpeed = windSpeed * pointsOfSail.dataArray[i].Optimalspeed;
if (0 < i)
{
adjacentPointsOfSail.Add(pointsOfSail.dataArray[i - 1]);
}
if (i < pointsOfSail.dataArray.Length - 1)
{
adjacentPointsOfSail.Add(pointsOfSail.dataArray[i + 1]);
}
break;
}
}
//check actual point of sail and apply speed
float f = CheckActualPOS(currentPointOfSail, adjacentPointsOfSail, posAngle, sailAngle);
rb.AddForce(transform.up * f * optimalSpeed);
}
float CheckSailAngle(PointsOfSailData optimal, List <PointsOfSailData> adjacent, float sA)
{
if (optimal.Sailanglemin <= sA && sA <= optimal.Sailanglemax)
{
return(1.4f);
}
else
{
foreach (PointsOfSailData item in adjacent)
{
if (item.Sailanglemin <= sA && sA <= item.Sailanglemax)
{
return(0.7F);
}
}
return(0.3F);
}
}
//return a modifier for the optimal speed
float CheckActualPOS(PointsOfSailData optimal, List <PointsOfSailData> adjacent, float h, float sA)
{
if (optimal.Rangemin <= h && h <= optimal.Rangemax)
{
hSpeedModifier = optimal.Optimalspeed;
finalModifier = hSpeedModifier * CheckSailAngle(optimal, adjacent, sA);
return(finalModifier);
}
else
{
foreach (PointsOfSailData item in adjacent)
{
if (item.Rangemin <= h && h <= item.Rangemax)
{
Debug.Log("Adjacent");
hSpeedModifier = 0.8f;
finalModifier = hSpeedModifier * CheckSailAngle(optimal, adjacent, sA);
Debug.Log("Adjacent final modifier = " + finalModifier);
return(finalModifier);
}
}
return(0);
}
}
