public NmmScanData(NmmFileName fileNameObject)
{
MetaData = new ScanMetaData();
MetaData.AddDataFrom(fileNameObject);
MetaData.AddDataFrom(new NmmInstrumentCharacteristcs());
// first read the description file so we can check if requested scan index is valid
MetaData.AddDataFrom(new NmmDescriptionFileParser(fileNameObject));
// now perform the scan index checks
if (MetaData.NumberOfScans > 1)
{
int scanIndex = fileNameObject.ScanIndex;
if (scanIndex == 0)
{
scanIndex = 1;
}
if (scanIndex > MetaData.NumberOfScans)
{
scanIndex = MetaData.NumberOfScans;
}
fileNameObject.SetScanIndex(scanIndex);
MetaData.AddDataFrom(fileNameObject);
}
// at this stage the scan index of fileNameObject should be ok
MetaData.AddDataFrom(new NmmIndFileParser(fileNameObject));
MetaData.AddDataFrom(new NmmEnvironmentData(fileNameObject));
topographyData = new TopographyData(MetaData);
nmmDat = new NmmDatFileParser(fileNameObject);
LoadTopographyData();
// contrary to similar classes of this library, the dat-files are not closed implicitely
nmmDat.Close();
// populate MetaData with absolute origin and center coordinates
PopulateFieldOriginAndCenter();
HeydemannCorrectionApplied = false;
HeydemannCorrectionSpan = 0.0;
}
static void Main(string[] args)
{
// parse command line arguments
var options = new Options();
if (!CommandLine.Parser.Default.ParseArgumentsStrict(args, options))
{
Console.WriteLine("*** ParseArgumentsStrict returned false");
}
if (options.BeQuiet == true)
{
ConsoleUI.BeSilent();
}
else
{
ConsoleUI.BeVerbatim();
}
ConsoleUI.Welcome();
// get the filename(s)
string[] fileNames = options.ListOfFileNames.ToArray();
if (fileNames.Length == 0)
{
ConsoleUI.ErrorExit("!Missing input file", 1);
}
// read all relevant scan data
ConsoleUI.StartOperation("Reading and evaluating files");
NmmFileName nmmFileName = new NmmFileName(fileNames[0]);
nmmFileName.SetScanIndex(options.ScanIndex);
NmmScanData nmmScanData = new NmmScanData(nmmFileName);
ConsoleUI.Done();
if (options.DoHeydemann)
{
nmmScanData.ApplyHeydemannCorrection();
if (nmmScanData.HeydemannCorrectionApplied)
{
ConsoleUI.WriteLine($"Heydemann correction applied, span {nmmScanData.HeydemannCorrectionSpan * 1e9:F1} nm");
}
else
{
ConsoleUI.WriteLine($"Heydemann correction not successful.");
}
}
// some checks of the provided CLA options
if (options.ProfileIndex < 0)
{
options.ProfileIndex = 0;
}
if (options.ProfileIndex > nmmScanData.MetaData.NumberOfProfiles)
{
options.ProfileIndex = nmmScanData.MetaData.NumberOfProfiles;
}
TopographyProcessType topographyProcessType = TopographyProcessType.ForwardOnly;
if (options.UseBack)
{
topographyProcessType = TopographyProcessType.BackwardOnly;
}
if (options.UseBoth)
{
topographyProcessType = TopographyProcessType.Average;
}
if (options.UseDiff)
{
topographyProcessType = TopographyProcessType.Difference;
}
if (nmmScanData.MetaData.ScanStatus == ScanDirectionStatus.ForwardOnly)
{
if (topographyProcessType != TopographyProcessType.ForwardOnly)
{
ConsoleUI.WriteLine("No backward scan data present, switching to forward only.");
}
topographyProcessType = TopographyProcessType.ForwardOnly;
}
if (nmmScanData.MetaData.ScanStatus == ScanDirectionStatus.Unknown)
{
ConsoleUI.ErrorExit("!Unknown scan type", 2);
}
if (nmmScanData.MetaData.ScanStatus == ScanDirectionStatus.NoData)
{
ConsoleUI.ErrorExit("!No scan data present", 3);
}
// now we can start to sort and format everything we need
BcrWriter bcr = new BcrWriter();
bcr.Relaxed = !options.Strict; // overrules Relaxed
ConsoleUI.WriteLine(bcr.Relaxed ? "Relaxed formatting" : "Strict formatting");
bcr.ForceIsoFormat = options.IsoFormat;
ConsoleUI.WriteLine(bcr.ForceIsoFormat ? "ISO 25178-71 format" : "Legacy format");
// ISO 25178-71 file header
bcr.CreationDate = nmmScanData.MetaData.CreationDate;
bcr.ManufacurerId = nmmScanData.MetaData.InstrumentIdentifier;
bcr.NumberOfPointsPerProfile = nmmScanData.MetaData.NumberOfDataPoints;
if (options.ProfileIndex == 0)
{
bcr.NumberOfProfiles = nmmScanData.MetaData.NumberOfProfiles;
bcr.YScale = nmmScanData.MetaData.ScanFieldDeltaY;
ConsoleUI.WriteLine("Extract complete scanfield");
}
else
{
bcr.NumberOfProfiles = 1;
bcr.YScale = 0;
ConsoleUI.WriteLine($"Extract single profile {options.ProfileIndex} only");
}
bcr.XScale = nmmScanData.MetaData.ScanFieldDeltaX;
bcr.ZScale = options.ZScale;
// read actual topography data for given channel
if (!nmmScanData.ColumnPresent(options.ChannelSymbol))
{
ConsoleUI.ErrorExit($"!Channel {options.ChannelSymbol} not in scan data", 5);
}
double[] rawData = nmmScanData.ExtractProfile(options.ChannelSymbol, options.ProfileIndex, topographyProcessType);
// level data
DataLeveling levelObject;
if (options.ProfileIndex == 0)
{
levelObject = new DataLeveling(rawData, nmmScanData.MetaData.NumberOfDataPoints, nmmScanData.MetaData.NumberOfProfiles);
}
else
{
levelObject = new DataLeveling(rawData, nmmScanData.MetaData.NumberOfDataPoints);
}
levelObject.BiasValue = options.Bias * 1.0e-6; // bias is given in µm on the command line
double[] leveledTopographyData = levelObject.LevelData(MapOptionToReference(options.ReferenceMode));
// generate a dictionary with all relevant metadata for the ISO 25178-71 file trailer
Dictionary <string, string> bcrMetaData = new Dictionary <string, string>();
bcrMetaData.Add("InputFile", nmmScanData.MetaData.BaseFileName);
bcrMetaData.Add("ConvertedBy", $"{ConsoleUI.Title} version {ConsoleUI.Version}");
bcrMetaData.Add("UserComment", options.UserComment);
bcrMetaData.Add("OperatorName", nmmScanData.MetaData.User);
bcrMetaData.Add("Organisation", nmmScanData.MetaData.Organisation);
bcrMetaData.Add("SampleIdentifier", nmmScanData.MetaData.SampleIdentifier);
bcrMetaData.Add("SampleSpecies", nmmScanData.MetaData.SampleSpecies);
bcrMetaData.Add("SampleSpecification", nmmScanData.MetaData.SampleSpecification);
bcrMetaData.Add("SPMtechnique", nmmScanData.MetaData.SpmTechnique);
bcrMetaData.Add("Probe", nmmScanData.MetaData.ProbeDesignation);
bcrMetaData.Add("ZAxisSource", options.ChannelSymbol);
bcrMetaData.Add("Trace", topographyProcessType.ToString());
if (options.ProfileIndex != 0)
{
bcrMetaData.Add("NumProfiles", $"{nmmScanData.MetaData.NumberOfProfiles}");
bcrMetaData.Add("ExtractedProfile", $"{options.ProfileIndex}");
}
if (nmmScanData.MetaData.NumberOfScans > 1)
{
bcrMetaData.Add("NumberOfScans", $"{nmmScanData.MetaData.NumberOfScans}");
bcrMetaData.Add("Scan", $"{nmmScanData.MetaData.ScanIndex}");
}
bcrMetaData.Add("ReferenceDatum", levelObject.LevelModeDescription);
if (nmmScanData.HeydemannCorrectionApplied)
{
bcrMetaData.Add("HeydemannCorrection", $"Span {nmmScanData.HeydemannCorrectionSpan * 1e9:F1} nm");
}
bcrMetaData.Add("EnvironmentMode", nmmScanData.MetaData.EnvironmentMode);
bcrMetaData.Add("SampleTemperature", $"{nmmScanData.MetaData.SampleTemperature:F3} oC");
bcrMetaData.Add("AirTemperature", $"{nmmScanData.MetaData.AirTemperature:F3} oC");
bcrMetaData.Add("AirPressure", $"{nmmScanData.MetaData.BarometricPressure:F0} Pa");
bcrMetaData.Add("AirHumidity", $"{nmmScanData.MetaData.RelativeHumidity:F1} %");
bcrMetaData.Add("TemperatureGradient", $"{nmmScanData.MetaData.AirTemperatureGradient:F3} oC");
bcrMetaData.Add("TemperatureRange", $"{nmmScanData.MetaData.AirTemperatureDrift:F3} oC");
bcrMetaData.Add("ScanSpeed", $"{nmmScanData.MetaData.ScanSpeed * 1e6} um/s");
bcrMetaData.Add("AngularOrientation", $"{nmmScanData.MetaData.ScanFieldRotation:F3} grad");
bcrMetaData.Add("ScanFieldCenterX", $"{nmmScanData.MetaData.ScanFieldCenterZ * 1000:F3} mm");
bcrMetaData.Add("ScanFieldCenterY", $"{nmmScanData.MetaData.ScanFieldCenterY * 1000:F3} mm");
bcrMetaData.Add("ScanFieldCenterZ", $"{nmmScanData.MetaData.ScanFieldCenterZ * 1000:F3} mm");
bcrMetaData.Add("ScanFieldOriginX", $"{nmmScanData.MetaData.ScanFieldOriginX} m");
bcrMetaData.Add("ScanFieldOriginY", $"{nmmScanData.MetaData.ScanFieldOriginY} m");
bcrMetaData.Add("ScanFieldOriginZ", $"{nmmScanData.MetaData.ScanFieldOriginZ} m");
bcrMetaData.Add("ScanDuration", $"{nmmScanData.MetaData.ScanDuration.TotalSeconds:F0} s");
bcrMetaData.Add("GlitchedDataPoints", $"{nmmScanData.MetaData.NumberOfGlitchedDataPoints}");
bcrMetaData.Add("SpuriousDataLines", $"{nmmScanData.MetaData.SpuriousDataLines}");
for (int i = 0; i < nmmScanData.MetaData.ScanComments.Count; i++)
{
bcrMetaData.Add($"ScanComment{i + 1}", nmmScanData.MetaData.ScanComments[i]);
}
// ISO 25178-71 main section
bcr.PrepareMainSection(leveledTopographyData);
// ISO 25178-71 file trailer
bcr.PrepareTrailerSection(bcrMetaData);
// now generate output
string outFileName;
if (fileNames.Length >= 2)
{
outFileName = fileNames[1];
}
else
{
outFileName = nmmFileName.GetFreeFileNameWithIndex("sdf");
}
ConsoleUI.WritingFile(outFileName);
if (!bcr.WriteToFile(outFileName))
{
ConsoleUI.Abort();
ConsoleUI.ErrorExit("!could not write file", 4);
}
ConsoleUI.Done();
}
public static void Main(string[] args)
{
Thread.CurrentThread.CurrentCulture = new CultureInfo("en-US");
if (!CommandLine.Parser.Default.ParseArgumentsStrict(args, options))
{
Console.WriteLine("*** ParseArgumentsStrict returned false");
}
// consume the verbosity option
if (options.BeQuiet == true)
{
ConsoleUI.BeSilent();
}
else
{
ConsoleUI.BeVerbatim();
}
// print a welcome message
ConsoleUI.Welcome();
ConsoleUI.WriteLine();
// get the filename(s)
fileNames = options.ListOfFileNames.ToArray();
if (fileNames.Length == 0)
{
ConsoleUI.ErrorExit("!Missing input file", 1);
}
// if no filetype was choosen, use default one
if (!(options.convertBcr ||
options.convertPrDe ||
options.convertPrEn ||
options.convertPrf ||
options.convertSig ||
options.convertSmd ||
options.convertTxt ||
options.convertCsv ||
options.convertX3p))
{
options.convertSig = true; // this should be convertBcr in the future
}
// read all relevant scan data
ConsoleUI.StartOperation("Reading and evaluating files");
nmmFileNameObject = new NmmFileName(fileNames[0]);
nmmFileNameObject.SetScanIndex(options.ScanIndex);
theData = new NmmScanData(nmmFileNameObject);
ConsoleUI.Done();
ConsoleUI.WriteLine();
if (options.DoHeydemann)
{
theData.ApplyHeydemannCorrection();
if (theData.HeydemannCorrectionApplied)
{
ConsoleUI.WriteLine($"Heydemann correction applied, span {theData.HeydemannCorrectionSpan * 1e9:F1} nm");
}
else
{
ConsoleUI.WriteLine($"Heydemann correction not successful.");
}
ConsoleUI.WriteLine();
}
// some checks of the provided CLA options
if (options.ProfileIndex < 0)
{
options.ProfileIndex = 0; // automatically extract all profiles
}
if (options.ProfileIndex > theData.MetaData.NumberOfProfiles)
{
options.ProfileIndex = theData.MetaData.NumberOfProfiles;
}
topographyProcessType = TopographyProcessType.ForwardOnly;
if (options.UseBack)
{
topographyProcessType = TopographyProcessType.BackwardOnly;
}
if (options.UseBoth)
{
topographyProcessType = TopographyProcessType.Average;
}
if (options.UseDiff)
{
topographyProcessType = TopographyProcessType.Difference;
}
if (theData.MetaData.ScanStatus == ScanDirectionStatus.ForwardOnly)
{
if (topographyProcessType != TopographyProcessType.ForwardOnly)
{
ConsoleUI.WriteLine("No backward scan data present, switching to forward only.");
}
topographyProcessType = TopographyProcessType.ForwardOnly;
}
if (theData.MetaData.ScanStatus == ScanDirectionStatus.Unknown)
{
ConsoleUI.ErrorExit("!Unknown scan type", 2);
}
if (theData.MetaData.ScanStatus == ScanDirectionStatus.NoData)
{
ConsoleUI.ErrorExit("!No scan data present", 3);
}
// now we can start to sort and format everything we need
prf.CreationDate = theData.MetaData.CreationDate;
prf.SampleIdentification = theData.MetaData.SampleIdentifier;
prf.DeltaX = theData.MetaData.ScanFieldDeltaX * 1e6;
prf.UserComment = options.UserComment;
// extract the requested profile
if (options.ProfileIndex != 0)
{
ProcessSingleProfile(options.ProfileIndex);
return;
}
// (ProfileIndex == 0) => extract all profiles
for (int i = 1; i <= theData.MetaData.NumberOfProfiles; i++)
{
ProcessSingleProfile(i);
}
}
public static void Main(string[] args)
{
CultureInfo.CurrentCulture = CultureInfo.InvariantCulture;
// parse command line arguments
if (!CommandLine.Parser.Default.ParseArgumentsStrict(args, options))
{
Console.WriteLine("*** ParseArgumentsStrict returned false");
}
// consume the verbosity option
if (options.BeQuiet == true)
{
ConsoleUI.BeSilent();
}
else
{
ConsoleUI.BeVerbatim();
}
// print a welcome message
ConsoleUI.Welcome();
ConsoleUI.WriteLine();
// get the filename(s)
fileNames = options.ListOfFileNames.ToArray();
if (fileNames.Length == 0)
{
ConsoleUI.ErrorExit("!Missing input file name", 1);
}
// read all relevant scan data
ConsoleUI.StartOperation("Reading NMM scan files");
nmmFileNameObject = new NmmFileName(fileNames[0]);
nmmFileNameObject.SetScanIndex(options.ScanIndex);
theData = new NmmScanData(nmmFileNameObject);
ConsoleUI.Done();
// check if data present
if (theData.MetaData.ScanStatus == ScanDirectionStatus.Unknown)
{
ConsoleUI.ErrorExit("!Unknown scan type", 4);
}
if (theData.MetaData.ScanStatus == ScanDirectionStatus.NoData)
{
ConsoleUI.ErrorExit("!No scan data present", 5);
}
// Check if requested channels are present in raw data
if (!theData.ColumnPresent(options.XAxisDesignation))
{
ConsoleUI.ErrorExit($"!Requested channel {options.XAxisDesignation} not in data files", 2);
}
if (!theData.ColumnPresent(options.ZAxisDesignation))
{
ConsoleUI.ErrorExit($"!Requested channel {options.ZAxisDesignation} not in data files", 3);
}
// one must avoid referencing to an line outside of expected number of line marks
if (options.RefLine < 0)
{
options.RefLine = 0;
}
if (options.RefLine >= options.ExpectedTargets)
{
options.RefLine = options.ExpectedTargets - 1;
}
// output scan files peculiaritues
ConsoleUI.WriteLine();
ConsoleUI.WriteLine($"SpuriousDataLines: {theData.MetaData.SpuriousDataLines}");
ConsoleUI.WriteLine($"NumberOfGlitchedDataPoints: {theData.MetaData.NumberOfGlitchedDataPoints}");
// some screen output
ConsoleUI.WriteLine();
ConsoleUI.WriteLine($"{theData.MetaData.NumberOfDataPoints} data lines with {theData.MetaData.NumberOfColumnsInFile} channels, organized in {theData.MetaData.NumberOfProfiles} profiles");
ConsoleUI.WriteLine($"x-axis channel: {options.XAxisDesignation}");
ConsoleUI.WriteLine($"z-axis channel: {options.ZAxisDesignation}");
ConsoleUI.WriteLine($"Threshold: {options.Threshold}");
ConsoleUI.WriteLine($"Morphological filter parameter: {options.Morpho}");
if (options.LineScale)
{
ConsoleUI.WriteLine($"Expected number of line marks: {options.ExpectedTargets}");
ConsoleUI.WriteLine($"Nominal scale division: {options.NominalDivision} um");
}
ConsoleUI.WriteLine();
// evaluate the intensities for ALL profiles == the whole scan field
ConsoleUI.StartOperation("Classifying intensity data");
double[] luminanceField = theData.ExtractProfile(options.ZAxisDesignation, 0, TopographyProcessType.ForwardOnly);
IntensityEvaluator eval = new IntensityEvaluator(luminanceField);
ConsoleUI.Done();
ConsoleUI.WriteLine();
ConsoleUI.WriteLine($"Intensity range from {eval.MinIntensity} to {eval.MaxIntensity}");
ConsoleUI.WriteLine($"Estimated bounds from {eval.LowerBound} to {eval.UpperBound}");
double relativeSpan = (double)(eval.UpperBound - eval.LowerBound) / (double)(eval.MaxIntensity - eval.MinIntensity) * 100.0;
ConsoleUI.WriteLine($"({relativeSpan:F1} % of full range)");
ConsoleUI.WriteLine();
// prepare object for the overall dimensional result
LineScale result = new LineScale(options.ExpectedTargets);
result.SetNominalValues(options.NominalDivision, options.RefLine);
// wraps profiles extracted from NMM files to a more abstract structure: profiles
List <IntensityProfile> profilesList = new List <IntensityProfile>();
WarpNmmProfiles(TopographyProcessType.ForwardOnly, profilesList);
if (theData.MetaData.ScanStatus == ScanDirectionStatus.ForwardAndBackward || theData.MetaData.ScanStatus == ScanDirectionStatus.ForwardAndBackwardJustified)
{
WarpNmmProfiles(TopographyProcessType.BackwardOnly, profilesList);
}
IntensityProfile[] profiles = profilesList.ToArray();
// the loop over all profiles
for (int profileIndex = 0; profileIndex < profiles.Length; profileIndex++)
{
if (!profiles[profileIndex].IsValid)
{
ConsoleUI.ErrorExit($"!Profile {profileIndex} invalid", 6);
}
Classifier classifier = new Classifier(profiles[profileIndex].Zvalues);
int[] skeleton = classifier.GetSegmentedProfile(options.Threshold, eval.LowerBound, eval.UpperBound);
MorphoFilter filter = new MorphoFilter(skeleton);
skeleton = filter.FilterWithParameter(options.Morpho);
LineDetector marks = new LineDetector(skeleton, profiles[profileIndex].Xvalues);
if (options.LineScale)
{
ConsoleUI.WriteLine($"profile: {profileIndex+1,3} with {marks.LineCount} line marks {(marks.LineCount != options.ExpectedTargets ? "*" : " ")}");
}
result.UpdateSample(marks.LineMarks, options.RefLine);
if (options.EdgeOnly)
{
ConsoleUI.WriteLine($"profile: {profileIndex+1,3} with L:{marks.LeftEdgePositions.Count} R:{marks.RightEdgePositions.Count}");
EdgesOnlyOutputToStringBuilder(marks, profileIndex);
}
}
#region output
// prepare output
string outFormater = $"F{options.Precision}";
StringBuilder sb = new StringBuilder();
sb.AppendLine($"{ConsoleUI.WelcomeMessage}");
sb.AppendLine($"InputFile = {theData.MetaData.BaseFileName}");
// section for sample specific metadata
sb.AppendLine($"SampleIdentifier = {theData.MetaData.SampleIdentifier}");
sb.AppendLine($"SampleSpecies = {theData.MetaData.SampleSpecies}");
sb.AppendLine($"SampleSpecification = {theData.MetaData.SampleSpecification}");
if (options.LineScale)
{
sb.AppendLine($"ExpectedLineMarks = {options.ExpectedTargets}");
sb.AppendLine($"NominalDivision = {options.NominalDivision} µm");
sb.AppendLine($"ScaleType = {result.ScaleType}");
}
sb.AppendLine($"ThermalExpansion = {options.Alpha.ToString("E2")} 1/K");
// scan file specific data
sb.AppendLine($"NumberOfScans = {theData.MetaData.NumberOfScans}");
sb.AppendLine($"ScanIndex = {theData.MetaData.ScanIndex}");
sb.AppendLine($"PointsPerProfile = {theData.MetaData.NumberOfDataPoints}");
sb.AppendLine($"Profiles = {theData.MetaData.NumberOfProfiles}");
sb.AppendLine($"InputChannels = {theData.MetaData.NumberOfColumnsInFile}");
sb.AppendLine($"PointSpacing = {(theData.MetaData.ScanFieldDeltaX * 1e6).ToString("F4")} µm");
sb.AppendLine($"ProfileSpacing = {(theData.MetaData.ScanFieldDeltaY * 1e6).ToString("F4")} µm");
sb.AppendLine($"ScanFieldCenterX = {theData.MetaData.ScanFieldCenterX * 1000:F1} mm");
sb.AppendLine($"ScanFieldCenterY = {theData.MetaData.ScanFieldCenterY * 1000:F1} mm");
sb.AppendLine($"ScanFieldCenterZ = {theData.MetaData.ScanFieldCenterZ * 1000:F1} mm");
sb.AppendLine($"AngularOrientation = {theData.MetaData.ScanFieldRotation:F2}°");
sb.AppendLine($"ScanSpeed = {theData.MetaData.ScanSpeed} µm/s");
sb.AppendLine($"GlitchedDataPoints = {theData.MetaData.NumberOfGlitchedDataPoints}");
sb.AppendLine($"SpuriousDataLines = {theData.MetaData.SpuriousDataLines}");
sb.AppendLine($"Probe = {theData.MetaData.ProbeDesignation}");
// evaluation parameters, user supplied
sb.AppendLine($"X-AxisChannel = {options.XAxisDesignation}");
sb.AppendLine($"Z-AxisChannel = {options.ZAxisDesignation}");
sb.AppendLine($"Threshold = {options.Threshold}");
sb.AppendLine($"FilterParameter = {options.Morpho}");
if (options.LineScale)
{
sb.AppendLine($"ReferencedToLine = {options.RefLine}");
double maximumThermalCorrection = ThermalCorrection(result.LineMarks.Last().NominalPosition) - ThermalCorrection(result.LineMarks.First().NominalPosition);
sb.AppendLine($"MaxThermalCorrection = {maximumThermalCorrection:F3} µm");
}
// auxiliary values
sb.AppendLine($"MinimumIntensity = {eval.MinIntensity}");
sb.AppendLine($"MaximumIntensity = {eval.MaxIntensity}");
sb.AppendLine($"LowerPlateau = {eval.LowerBound}");
sb.AppendLine($"UpperPlateau = {eval.UpperBound}");
sb.AppendLine($"RelativeSpan = {relativeSpan:F1} %");
if (options.LineScale)
{
sb.AppendLine($"EvaluatedProfiles = {result.SampleSize}");
}
// environmental data
sb.AppendLine($"SampleTemperature = {theData.MetaData.SampleTemperature.ToString("F3")} °C");
sb.AppendLine($"AirTemperature = {theData.MetaData.AirTemperature.ToString("F3")} °C");
sb.AppendLine($"AirPressure = {theData.MetaData.BarometricPressure.ToString("F0")} Pa");
sb.AppendLine($"AirHumidity = {theData.MetaData.RelativeHumidity.ToString("F1")} %");
sb.AppendLine("======================");
if (options.LineScale)
{
sb.AppendLine("1 : Line number (tag)");
sb.AppendLine("2 : Nominal value / µm");
sb.AppendLine("3 : Position deviation / µm");
sb.AppendLine("4 : StdDev of line position values / µm");
sb.AppendLine("5 : Range of line position values / µm");
sb.AppendLine("6 : Line width / µm");
sb.AppendLine("7 : StdDev of line widths / µm");
sb.AppendLine("8 : Range of line widths / µm");
sb.AppendLine("@@@@");
if (result.SampleSize == 0)
{
sb.AppendLine("*** No matching intensity pattern found ***");
}
else
{
foreach (var line in result.LineMarks)
{
double deltaL = ThermalCorrection(line.NominalPosition);
sb.AppendLine($"{line.Tag.ToString().PadLeft(5)}" +
$"{line.NominalPosition.ToString("F0").PadLeft(10)}" +
$"{(line.Deviation + deltaL).ToString(outFormater).PadLeft(10)}" +
$"{line.LineCenterStdDev.ToString(outFormater).PadLeft(10)}" +
$"{line.LineCenterRange.ToString(outFormater).PadLeft(10)}" +
$"{line.AverageLineWidth.ToString(outFormater).PadLeft(10)}" +
$"{line.LineWidthStdDev.ToString(outFormater).PadLeft(10)}" +
$"{(line.LineWidthRange).ToString(outFormater).PadLeft(10)}");
}
}
}
if (options.EdgeOnly)
{
sb.Append(edgesOnlyOutput);
}
#endregion
#region File output
string outFileName;
if (fileNames.Length >= 2)
{
outFileName = fileNames[1]; // path and extension must be explicitely given
}
else
{
outFileName = nmmFileNameObject.GetFreeFileNameWithIndex(".prn"); // extension will be added by WriteToFile()
}
ConsoleUI.WriteLine();
ConsoleUI.WritingFile(outFileName);
StreamWriter hOutFile = File.CreateText(outFileName);
hOutFile.Write(sb);
hOutFile.Close();
ConsoleUI.Done();
#endregion
}