public CylDataSet(string filename) : base(filename)
{
CylData = new CylData(filename);
UncorrectedCylData = new CylData(FileName);
}
public RingDataSet(string filename) : base(filename)
{
RawLandPoints = new CylData(filename);
CorrectedLandPoints = new CylData(filename);
}
public RingDataSet()
{
RawLandPoints = new CylData();
CorrectedLandPoints = new CylData();
}
public void CylData_defCtor()
{
var cd = new CylData();
Assert.IsNotNull(cd);
}
public CylDataSet()
{
CylData = new CylData();
UncorrectedCylData = new CylData();
}
public void AdjustFeedrates(CylData depthData, CylData startData, CylData targetData, double averagingWindow)
{
MeasureDepthsAtJetLocations(depthData, startData, targetData, averagingWindow);
AdjustFeedrates();
}
public void AdjustFeedrates(CylData depthData)
{
MeasureDepthsAtJetLocations(depthData);
AdjustFeedrates();
}
public void MeasureDepthsAtJetLocations(CylData profileData, CylData startData, CylData targetData, double averagingWindow)
{
foreach (XSectionPathEntity xpe in this)
{
double xStart = xpe.CrossLoc - averagingWindow / 2;
double xEnd = xpe.CrossLoc + averagingWindow / 2;
//calc profile value
double xSum = 0;
int count = 0;
for (int i = 1; i < profileData.Count; i++)
{
if ((profileData[i].ThetaDeg > xStart && profileData[i].ThetaDeg <= xEnd) || (profileData[i].ThetaDeg <= xStart && profileData[i].ThetaDeg > xEnd))
{
count++;
xSum += profileData[i].R;
}
}
if (count > 0)
{
xSum /= count;
}
xpe.CurrentRadius = xSum;
//calc target depth
count = 0;
xSum = 0;
for (int i = 1; i < targetData.Count; i++)
{
if ((targetData[i].ThetaDeg > xStart && targetData[i].ThetaDeg <= xEnd) || (targetData[i].ThetaDeg <= xStart && targetData[i].ThetaDeg > xEnd))
{
count++;
xSum += targetData[i].R;
}
}
if (count > 0)
{
xSum /= count;
}
//calc start depth
count = 0;
xSum = 0;
for (int i = 1; i < startData.Count; i++)
{
if ((startData[i].ThetaDeg > xStart && startData[i].ThetaDeg <= xEnd) || (startData[i].ThetaDeg <= xStart && startData[i].ThetaDeg > xEnd))
{
count++;
xSum += startData[i].R;
}
}
if (count > 0)
{
xSum /= count;
}
xpe.StartRadius = xSum;
}
}
static BarrelInspProfile BuildFromRings(List <InspDataSet> inspDataSets, int grooveCount)
{
try
{
var profile = new BarrelInspProfile();
var groovePointList = new List <CylData>();
var aveLandPointList = new List <CylData>();
var aveGrooveProfile = new CylData(inspDataSets[0].FileName);
var minLandProfile = new CylData(inspDataSets[0].FileName);
var aveLandProfile = new CylData(inspDataSets[0].FileName);
foreach (InspDataSet dataset in inspDataSets)
{
if (dataset is RingDataSet ringData)
{
var inspData = ringData.CylData;
var groovePoints = new CylData(inspDataSets[0].FileName);
var landPoints = new CylData(inspDataSets[0].FileName);
int pointCt = ringData.CylData.Count;
int deltaIndex = pointCt / grooveCount;
int[] grooveIndices = new int[grooveCount];
int[] landIndices = new int[grooveCount];
//get land and groove indices
int grooveIndex = 0;
int landIndex = 0;
for (int j = 0; j < grooveCount; j++)
{
grooveIndex = (int)(j * deltaIndex);
landIndex = (int)(j * deltaIndex + deltaIndex / 2);
grooveIndices[j] = grooveIndex;
landIndices[j] = landIndex;
}
double rGrooveAve = 0;
double rLandAve = 0;
var pt0 = inspData[0];
//average groove values
for (int k = 0; k < grooveIndices.Length; k++)
{
var groovePt = inspData[grooveIndices[k]];
rGrooveAve += groovePt.R;
var landPt = inspData[landIndices[k]];
rLandAve += landPt.R;
}
rLandAve /= grooveIndices.Length;
rGrooveAve /= grooveIndices.Length;
aveGrooveProfile.Add(new PointCyl(rGrooveAve, pt0.ThetaRad, pt0.Z));
aveLandProfile.Add(new PointCyl(rLandAve, pt0.ThetaRad, pt0.Z));
//use min or average land values
double minR = double.MaxValue;
foreach (PointCyl pt in inspData)
{
if (pt.R < minR)
{
minR = pt.R;
}
}
var ptMin = new PointCyl(minR, pt0.ThetaRad, pt0.Z);
minLandProfile.Add(ptMin);
}
profile.AveGrooveProfile = aveGrooveProfile;
profile.AveLandProfile = aveLandProfile;
profile.MinLandProfile = minLandProfile;
// profile.Barrel = inspDataSets[0].Barrel;
}
return(profile);
}
catch (Exception)
{
throw;
}
}
/// <summary>
/// get land points from data and assume minimum radius found is land
/// </summary>
/// <param name="rawSingleRing"></param>
/// <returns></returns>
static CylData GetLandPoints(CylData ring, int pointsPerRevolution, int grooveCount)
{
try
{
var outputList = new CylData(ring.FileName);
double thMax = Math.Max(ring[0].ThetaRad, ring[ring.Count - 1].ThetaRad);
double thMin = Math.Min(ring[0].ThetaRad, ring[ring.Count - 1].ThetaRad);
var minPt = GetMinRadiusPt(ring);
int searchHalfWindow = (int)((pointsPerRevolution / grooveCount) / 2.0);
double dth = Math.PI * 2.0 / grooveCount;
var landLocations = new List <double>();
landLocations.Add(minPt.ThetaRad);
for (int i = 1; i < grooveCount; i++)
{
double land = (minPt.ThetaRad + (i * dth));// % Math.PI*2.0;
if (land <= thMax && land >= thMin)
{
landLocations.Add(land);
if (Math.Abs(land % (Math.PI * 2.0)) < .02)
{
landLocations.Add(0.0);
}
}
land = (minPt.ThetaRad - (i * dth));
if (land <= thMax && land >= thMin)
{
landLocations.Add(land);
}
}
landLocations.Sort();
bool useLocalMinPt = false;
for (int i = 0; i < landLocations.Count; i++)
{
if (useLocalMinPt)
{
for (int j = 0; j < ring.Count - 1; j++)
{
var p1 = ring[j].ThetaRad;
var p2 = ring[j + 1].ThetaRad;
if (landLocations[i] < p2 && landLocations[i] >= p1)
{
int searchStart = Math.Max(0, j - searchHalfWindow);
int searchEnd = Math.Min(ring.Count, j + searchHalfWindow);
double minR = double.MaxValue;
PointCyl localMinPt = new PointCyl();
//find local min
var fit = new FitData(false, 2);
//var segment = new SegmentFitData();
for (int k = searchStart; k < searchEnd; k++)
{
if (ring[k].R < minR)
{
minR = ring[k].R;
localMinPt = ring[k].Clone();
}
}
outputList.Add(localMinPt);
}
}
}
else
{
for (int j = 0; j < ring.Count - 1; j++)
{
if (landLocations[i] < ring[j + 1].ThetaRad && landLocations[i] >= ring[j].ThetaRad)
{
double r = (ring[j].R + ring[j + 1].R) / 2.0;
double th = (ring[j].ThetaRad + ring[j + 1].ThetaRad) / 2.0;
double z = (ring[j].Z + ring[j + 1].Z) / 2.0;
outputList.Add(new PointCyl(r, th, z));
}
}
}
}
outputList.SortByIndex();
return(outputList);
}
catch (Exception)
{
throw;
}
}
