private void btnOK_Click(object sender, EventArgs e)
{
// Edits the coordinates of selected turbine and calls background worker to perform turbine calcs (if they were done before)
string name = txtName.Text;
double UTMX = Convert.ToDouble(txtUTMX.Text);
double UTMY = Convert.ToDouble(txtUTMY.Text);
if (name == "" || UTMX == 0 || UTMY == 0)
{
MessageBox.Show("Need valid entries for all fields", "Continuum 3");
return;
}
Check_class Check = new Check_class();
bool inputTurbine = Check.NewTurbOrMet(thisInst.topo, name, UTMX, UTMY, true);
if (inputTurbine == true)
{
thisInst.turbineList.EditTurbine(name, UTMX, UTMY);
}
Update updateThe = new Update();
updateThe.AllTABs(thisInst);
Close();
}
/// <summary> Finds and returns array of grid points surrounding met/node for P10 exposure calculation. </summary>
public TopoInfo.TopoGrid[] GetGridArray(double UTMX, double UTMY, Continuum thisInst) //
{
double minX = UTMX - gridRadius;
double minY = UTMY - gridRadius;
double maxX = UTMX + gridRadius;
double maxY = UTMY + gridRadius;
// Find closest nodes to minX and minY and maxX and maxY with a minimum distance of 10 km from edge of topography
TopoInfo.TopoGrid closestNodeToMin = thisInst.topo.GetClosestNodeFixedGrid(minX, minY, reso, 10000);
TopoInfo.TopoGrid closestNodeToMax = thisInst.topo.GetClosestNodeFixedGrid(maxX, maxY, reso, 10000);
minX = closestNodeToMin.UTMX;
minY = closestNodeToMin.UTMY;
maxX = closestNodeToMax.UTMX;
maxY = closestNodeToMax.UTMY;
Check_class check = new Check_class();
int gridCount = 0;
TopoInfo.TopoGrid[] gridArray = new TopoInfo.TopoGrid[1];
double dirBinSize = (double)360 / thisInst.metList.numWD;
double[] windRose = thisInst.metList.GetAvgWindRose(thisInst.modeledHeight, Met.TOD.All, Met.Season.All);
bool[] sectorsToUse = FindSectorsForGrid(windRose);
for (double i = minX; i <= maxX; i = i + reso)
{
for (double j = minY; j <= maxY; j = j + reso)
{
double dist = thisInst.topo.CalcDistanceBetweenPoints(i, j, UTMX, UTMY);
double deltaX = i - UTMX;
double deltaY = j - UTMY;
int dirInd = thisInst.topo.CalcDirInd(deltaX, deltaY, dirBinSize);
int goodToGo = check.NewNodeCheck(thisInst.topo, i, j, 10000, "Calcs");
// bool gridOk = thisInst.topo.newNode(i, j, thisInst.radiiList, gridRadius);
if (goodToGo == 100 && ((dist < gridRadius && sectorsToUse[dirInd] == true) || dist < gridRadius / 2))
{
gridCount = gridCount + 1;
Array.Resize(ref gridArray, gridCount);
gridArray[gridCount - 1].UTMX = i;
gridArray[gridCount - 1].UTMY = j;
}
}
}
return(gridArray);
}
private void btnOK_Click(object sender, EventArgs e)
{
// Reads in entered name, UTMX, UTMY, and string number. if ( valid, adds to turbine list and calls background worker to perform turbine calcs (if done before)
string name = "";
double UTMX = 0;
double UTMY = 0;
int stringNum = 0;
bool inputTurbine = false;
Check_class check = new Check_class();
try
{
name = txtName.Text;
}
catch
{
MessageBox.Show("Invalid entry for turbine name", "Continuum 3");
return;
}
try
{
UTMX = Convert.ToSingle(txtUTMX.Text);
}
catch
{
MessageBox.Show("Invalid entry for easting", "Continuum 3");
return;
}
try
{
UTMY = Convert.ToSingle(txtUTMY.Text);
}
catch
{
MessageBox.Show("Invalid entry for northing", "Continuum 3");
return;
}
try
{
stringNum = Convert.ToInt16(txtStrNum.Text);
}
catch
{
stringNum = 0;
}
if (name == "" || UTMX == 0 || UTMY == 0)
{
MessageBox.Show("Need valid entries for all fields", "Continuum 3");
return;
}
else
{
inputTurbine = check.NewTurbOrMet(thisInst.topo, name, UTMX, UTMY, true);
if (inputTurbine == true)
{
thisInst.turbineList.AddTurbine(name, UTMX, UTMY, stringNum);
}
thisInst.updateThe.AllTABs(thisInst);
thisInst.ChangesMade();
Close();
}
}