/*
* Copyright 1998-2009 University Corporation for Atmospheric Research/Unidata
*
* Portions of this software were developed by the Unidata Program at the
* University Corporation for Atmospheric Research.
*
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* any fee or cost, to use, copy, modify, alter, enhance and distribute
* this software, and any derivative works thereof, and its supporting
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*/
package ucar.nc2.dt.radial;
import ucar.nc2.*;
import ucar.nc2.dataset.*;
import ucar.nc2.constants.*;
import ucar.nc2.constants.FeatureType;
import ucar.nc2.dt.*;
import ucar.nc2.time.CalendarDateUnit;
import ucar.nc2.units.DateUnit;
import ucar.nc2.units.DateFormatter;
import ucar.ma2.*;
import ucar.nc2.Attribute;
import ucar.unidata.geoloc.LatLonRect;
import ucar.unidata.geoloc.Earth;
import ucar.unidata.geoloc.LatLonPointImpl;
import java.io.IOException;
import java.util.*;
/**
* Make a NEXRAD Level 2 NetcdfDataset into a RadialDataset.
*
* @author yuan
*/
public class LevelII2Dataset extends RadialDatasetSweepAdapter implements TypedDatasetFactoryIF {
private NetcdfDataset ds;
double latv, lonv, elev;
DateFormatter formatter = new DateFormatter();
/////////////////////////////////////////////////
// TypedDatasetFactoryIF
public boolean isMine(NetcdfDataset ds) {
String convention = ds.findAttValueIgnoreCase(null, "Conventions", null);
if ((null != convention) && convention.equals(_Coordinate.Convention)) {
String format = ds.findAttValueIgnoreCase(null, "Format", null);
if (format != null && (format.equals("ARCHIVE2")
|| format.equals("AR2V0001") || format.equals("CINRAD-SA")
|| format.equals("AR2V0003") || format.equals("AR2V0002") || format.equals("AR2V0004")
|| format.equals("AR2V0006") || format.equals("AR2V0007")))
return true;
}
return false;
}
public TypedDataset open(NetcdfDataset ncd, ucar.nc2.util.CancelTask task, StringBuilder errlog) throws IOException {
return new LevelII2Dataset(ncd);
}
public FeatureType getScientificDataType() { return FeatureType.RADIAL; }
public LevelII2Dataset() {}
/**
* Constructor.
*
* @param ds must be from nexrad2 IOSP
*/
public LevelII2Dataset(NetcdfDataset ds) {
super(ds);
this.ds = ds;
desc = "Nexrad 2 radar dataset";
setEarthLocation();
try {
setTimeUnits();
} catch (Exception e) {
throw new RuntimeException(e);
}
setStartDate();
setEndDate();
setBoundingBox();
}
protected void setBoundingBox() {
LatLonRect bb;
if (origin == null)
return;
double dLat = Math.toDegrees( getMaximumRadialDist() / Earth.getRadius());
double latRadians = Math.toRadians( origin.getLatitude());
double dLon = dLat * Math.cos(latRadians);
double lat1 = origin.getLatitude() - dLat/2;
double lon1 = origin.getLongitude() - dLon/2;
bb = new LatLonRect( new LatLonPointImpl( lat1, lon1), dLat, dLon);
boundingBox = bb;
}
double getMaximumRadialDist() {
double maxdist = 0.0;
Iterator iter = dataVariables.iterator();
while (iter.hasNext()) {
RadialVariable rv = (RadialVariable) iter.next();
Sweep sp = rv.getSweep(0);
double dist = sp.getGateNumber() * sp.getGateSize();
if (dist > maxdist)
maxdist = dist;
}
return maxdist;
}
protected void setEarthLocation() {
Attribute ga = ds.findGlobalAttribute("StationLatitude");
if(ga != null )
latv = ga.getNumericValue().doubleValue();
else
latv = 0.0;
ga = ds.findGlobalAttribute("StationLongitude");
if(ga != null)
lonv = ga.getNumericValue().doubleValue();
else
lonv = 0.0;
ga = ds.findGlobalAttribute("StationElevationInMeters");
if(ga != null)
elev = ga.getNumericValue().doubleValue();
else
elev = 0.0;
origin = new ucar.unidata.geoloc.EarthLocationImpl(latv, lonv, elev);
}
public ucar.unidata.geoloc.EarthLocation getCommonOrigin() {
return origin;
}
public String getRadarID() {
Attribute ga = ds.findGlobalAttribute("Station");
if(ga != null)
return ga.getStringValue();
else
return "XXXX";
}
public String getRadarName() {
Attribute ga = ds.findGlobalAttribute("StationName");
if(ga != null)
return ga.getStringValue();
else
return "Unknown Station";
}
public String getDataFormat() {
return "Level II";
}
public boolean isVolume() {
return true;
}
public boolean isHighResolution(NetcdfDataset nds) {
// return true;
Dimension r = nds.findDimension("scanR_HI");
Dimension v = nds.findDimension("scanV_HI");
if(r != null || v != null)
return true;
else
return false;
}
public boolean isStationary() {
return true;
}
protected void setTimeUnits() throws Exception {
List axes = ds.getCoordinateAxes();
for (int i = 0; i < axes.size(); i++) {
CoordinateAxis axis = (CoordinateAxis) axes.get(i);
if (axis.getAxisType() == AxisType.Time) {
String units = axis.getUnitsString();
dateUnits = new DateUnit(units);
calDateUnits = CalendarDateUnit.of(null, units);
return;
}
}
parseInfo.append("*** Time Units not Found\n");
}
protected void setStartDate() {
String start_datetime = ds.findAttValueIgnoreCase(null, "time_coverage_start", null);
if (start_datetime != null)
startDate = formatter.getISODate(start_datetime);
else
parseInfo.append("*** start_datetime not Found\n");
}
protected void setEndDate() {
String end_datetime = ds.findAttValueIgnoreCase(null, "time_coverage_end", null);
if (end_datetime != null)
endDate = formatter.getISODate(end_datetime);
else
parseInfo.append("*** end_datetime not Found\n");
}
public void clearDatasetMemory() {
List rvars = getDataVariables();
Iterator iter = rvars.iterator();
while (iter.hasNext()) {
RadialVariable radVar = (RadialVariable)iter.next();
radVar.clearVariableMemory();
}
}
public void getRadialsNum() {
}
protected void addRadialVariable(NetcdfDataset nds, Variable var) {
RadialVariable rsvar = null;
String vName = var.getShortName() ;
int rnk = var.getRank();
if ( rnk == 3 ) {
if (!isHighResolution(nds)) {
VariableSimpleIF v = new MyRadialVariableAdapter(vName, var.getAttributes());
rsvar = makeRadialVariable(nds, v, var);
} else {
if(! vName.endsWith("_HI")) {
VariableSimpleIF v = new MyRadialVariableAdapter(vName, var.getAttributes());
rsvar = makeRadialVariable(nds, v, var);
}
}
}
if(rsvar != null)
dataVariables.add(rsvar);
}
protected RadialVariable makeRadialVariable(NetcdfDataset nds, VariableSimpleIF v, Variable v0) {
// this function is null in level 2
return new LevelII2Variable(nds, v, v0);
}
public String getInfo() {
StringBuffer sbuff = new StringBuffer();
sbuff.append("LevelII2Dataset\n");
sbuff.append(super.getDetailInfo());
sbuff.append("\n\n");
sbuff.append(parseInfo.toString());
return sbuff.toString();
}
private class LevelII2Variable extends MyRadialVariableAdapter implements RadialDatasetSweep.RadialVariable {
int nsweeps;
int nsweepsHR;
ArrayList sweeps;
String name;
private LevelII2Variable(NetcdfDataset nds, VariableSimpleIF v, Variable v0) {
super(v.getShortName(), v0.getAttributes());
nsweepsHR = 0;
sweeps = new ArrayList();
name = v.getShortName();
if(isHighResolution(nds)) {
String vname = v0.getFullNameEscaped();
Variable vehr = nds.findVariable(vname+"_HI");
int [] shape1;
if(vehr != null) {
shape1 = vehr.getShape();
int count1 = vehr.getRank() - 1;
int ngatesHR = shape1[count1];
count1--;
int nraysHR = shape1[count1];
count1--;
nsweepsHR = shape1[count1];
for(int i = 0; i< nsweepsHR; i++)
sweeps.add(new LevelII2Sweep(vehr, i, nraysHR, ngatesHR) );
}
}
int[] shape = v0.getShape();
int count = v0.getRank() - 1;
int ngates = shape[count];
count--;
int nrays = shape[count];
count--;
nsweeps = shape[count];
for(int i = nsweepsHR; i< (nsweeps+nsweepsHR); i++)
sweeps.add( new LevelII2Sweep(v0, i, nrays, ngates)) ;
}
public String toString() {
return name;
}
public int getNumSweeps() {
if(isHighResolution(ds)) {
return nsweepsHR + nsweeps;
}
return nsweeps;
}
public Sweep getSweep(int sweepNo) {
return (Sweep) sweeps.get(sweepNo);
}
public int getNumRadials() {
return 0;
}
// a 3D array nsweep * nradials * ngates
// if high resolution data, it will be transfered to the same dimension
public float[] readAllData() throws IOException {
Array allData;
Sweep spn = (Sweep)sweeps.get(sweeps.size()-1);
Variable v = spn.getsweepVar();
float vGateSize = spn.getGateSize();
allData = v.read();
if( !isHighResolution(ds) )
return (float []) allData.get1DJavaArray(float.class);
else {
Sweep sp0 = (Sweep)sweeps.get(0);
Variable v0 = sp0.getsweepVar();
float v0GateSize = sp0.getGateSize();
int [] stride;
if(v0.getShortName().startsWith("Reflect"))
stride = new int [] {1, 2, 4};
else
stride = new int [] {1, 2, 1};
int[] shape1 = v.getShape();
int[] shape2 = v0.getShape();
int shp1 = (shape1[1]*stride[1] > shape2[1]) ? shape2[1] : shape1[1]*stride[1];
int shp2 = (shape1[2]*stride[2] > shape2[2]) ? shape2[2] : shape1[2]*stride[2];
int[] shape = {shape2[0], shp1, shp2};
// this dual pole or new high res
// where the lower and upper has same gate size, no stride needed
if(shape2[2] == shape1[2] || v0GateSize == vGateSize) {
stride = new int [] {1, 2, 1};
shape[2] = shape1[2];
}
int [] origin = {0, 0, 0};
try {
Section section = new Section(origin, shape, stride);
Array hrData = v0.read(section);
// now append hrData and allData
float [] fa1 =(float []) hrData.get1DJavaArray(float.class);
float [] fa2 =(float []) allData.get1DJavaArray(float.class);
float [] fa = new float[fa1.length + fa2.length];
System.arraycopy(fa1, 0, fa, 0, fa1.length);
System.arraycopy(fa2, 0, fa, fa1.length, fa2.length);
return fa;
} catch (ucar.ma2.InvalidRangeException e) {
throw new IOException(e);
}
}
}
public void clearVariableMemory() {
for(int i = 0; i < nsweeps; i++) {
}
}
//////////////////////////////////////////////////////////////////////
// Checking all azi to make sure there is no missing data at sweep
// level, since the coordinate is 1D at this level, this checking also
// remove those missing radials within a sweep.
private class LevelII2Sweep implements RadialDatasetSweep.Sweep {
double meanElevation = Double.NaN;
double meanAzimuth = Double.NaN;
int nrays, ngates;
int sweepno;
Variable sweepVar;
LevelII2Sweep(Variable v, int sweepno, int rays, int gates) {
this.sweepVar = v;
this.sweepno = sweepno;
this.nrays = rays;
this.ngates = gates;
// ucar.unidata.util.Trace.call2("LevelII2Dataset:testRadialVariable mine");
}
public Variable getsweepVar(){
return sweepVar;
}
/* read 2d sweep data nradials * ngates */
public float[] readData() throws java.io.IOException {
if(!isHighResolution(ds) ) {
return sweepData(sweepno);
} else {
if( sweepno > (nsweepsHR-1) ) {
int swpNo = sweepno - nsweepsHR;
return sweepData(swpNo);
}
else {
return sweepData(sweepno);
}
}
}
/* read from the radial variable */
private float [] sweepData(int swpNumber) throws IOException {
int [] shape = sweepVar.getShape();
int[] origin = new int[3];
// init section
origin[0] = swpNumber;
shape[0] = 1;
try {
Array sweepTmp = sweepVar.read(origin, shape).reduce();
return (float []) sweepTmp.get1DJavaArray(Float.TYPE);
} catch (ucar.ma2.InvalidRangeException e) {
throw new IOException(e);
}
}
// private Object MUTEX =new Object();
/* read 1d data ngates */
public float[] readData(int ray) throws java.io.IOException {
if(!isHighResolution(ds) ) {
return rayData(sweepno, ray);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return rayData(swpNo, ray);
}
else {
return rayData(sweepno, ray);
}
}
}
/* read the radial data from the radial variable */
public float[] rayData( int swpNumber, int ray) throws java.io.IOException {
int[] shape = sweepVar.getShape();
int[] origin = new int[3];
// init section
origin[0] = swpNumber;
origin[1] = ray; //shape[1] - numRadial + ray ;
shape[0] = 1;
shape[1] = 1;
try {
Array sweepTmp = sweepVar.read(origin, shape).reduce();
return (float []) sweepTmp.get1DJavaArray(Float.TYPE);
} catch (ucar.ma2.InvalidRangeException e) {
throw new IOException(e);
}
}
public void setMeanElevation() {
String eleName = getRadialVarCoordinateName("elevation", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
setMeanEle(eleName, sweepno);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
setMeanEle(eleName, swpNo);
}
else {
setMeanEle(eleName+"_HI", sweepno);
}
}
}
private void setMeanEle(String elevName, int swpNumber) {
float sum = 0;
int sumSize = 0;
try{
float[] eleArray = getEle(elevName, swpNumber);
for(float v : eleArray) {
if(!Float.isNaN(v)) {
sum += v;
sumSize++;
}
}
if (sumSize > 0)
meanElevation = sum / sumSize;
} catch (IOException e) {
e.printStackTrace();
}
}
public float getMeanElevation() {
if( Double.isNaN(meanElevation) )
setMeanElevation();
return (float) meanElevation ;
}
public double meanDouble(Array a) {
double sum = 0;
int size = 0;
IndexIterator iterA = a.getIndexIterator();
while (iterA.hasNext()) {
double s = iterA.getDoubleNext();
if (! Double.isNaN(s)) {
sum += s;
size ++;
}
}
if (size > 0)
return sum / size;
else
return Double.POSITIVE_INFINITY;
}
public int getGateNumber() {
return ngates;
}
public int getRadialNumber() {
return nrays;
}
public RadialDatasetSweep.Type getType() {
return null;
}
public ucar.unidata.geoloc.EarthLocation getOrigin(int ray) {
return origin;
}
public Date getStartingTime() {
return startDate;
}
public Date getEndingTime() {
return endDate;
}
public int getSweepIndex() {
return sweepno;
}
public void setMeanAzimuth() {
String aziName = getRadialVarCoordinateName("azimuth", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
setMeanAzi(aziName, sweepno);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
setMeanAzi(aziName, swpNo);
}
else {
setMeanAzi(aziName+"_HI", sweepno);
}
}
}
private void setMeanAzi(String aziName, int swpNumber) {
Array aziData = null;
if (getType() != null) {
try {
Array data = ds.findVariable(aziName).read();
int [] aziOrigin = new int[2];
aziOrigin[0] = swpNumber;
aziOrigin[1] = 0; //shape[1] - getRadialNumber();
int [] aziShape = {1, getRadialNumber()};
aziData = data.section(aziOrigin, aziShape);
meanAzimuth = MAMath.sumDouble( aziData) / aziData.getSize();
} catch (IOException e) {
e.printStackTrace();
meanAzimuth = 0.0;
} catch (ucar.ma2.InvalidRangeException e) {
e.printStackTrace();
}
} else
meanAzimuth = 0.0;
}
public float getMeanAzimuth() {
if(Double.isNaN(meanAzimuth))
setMeanAzimuth();
return (float) meanAzimuth;
}
public boolean isConic() {
return true;
}
public float getElevation(int ray) throws IOException {
String eleName = getRadialVarCoordinateName("elevation", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getEle(eleName, sweepno, ray);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return getEle(eleName, swpNo, ray);
}
else {
return getEle(eleName+"_HI", sweepno, ray);
}
}
}
public float getEle(String elevName, int swpNumber, int ray) throws IOException {
float[] eleData = getEle(elevName, swpNumber);
return eleData[ray];
}
public float[] getElevation() throws IOException {
String eleName = getRadialVarCoordinateName("elevation", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getEle(eleName, sweepno);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return getEle(eleName, swpNo);
}
else {
return getEle(eleName+"_HI", sweepno);
}
}
}
public float[] getEle(String elevName, int swpNumber) throws IOException {
try {
Variable evar = ds.findVariable(elevName);
Array eleData = evar.read();
evar.setCachedData(eleData, false);
int [] eleOrigin = new int[2];
eleOrigin[0] = swpNumber;
eleOrigin[1] = 0;
int [] eleShape = {1, getRadialNumber()};
eleData = eleData.section(eleOrigin, eleShape);
return (float [])eleData.get1DJavaArray(Float.TYPE);
} catch (ucar.ma2.InvalidRangeException e) {
throw new IOException(e);
}
}
public float[] getAzimuth() throws IOException {
String aziName = getRadialVarCoordinateName("azimuth", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getAzi(aziName, sweepno);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return getAzi(aziName, swpNo);
}
else {
return getAzi(aziName+"_HI", sweepno);
}
}
}
public float[] getAzi(String aziName, int swpNumber) throws IOException {
try {
Variable avar = ds.findVariable(aziName);
Array aziData = avar.read();
avar.setCachedData(aziData, false);
int[] aziOrigin = new int[2];
aziOrigin[0] = swpNumber;
aziOrigin[1] = 0; //shape[1] - getRadialNumber();
int[] aziShape = {1, getRadialNumber()};
aziData = aziData.section(aziOrigin, aziShape);
return (float[])aziData.get1DJavaArray(Float.TYPE);
} catch (ucar.ma2.InvalidRangeException e) {
throw new IOException(e);
}
}
public float getAzimuth(int ray) throws IOException {
String aziName = getRadialVarCoordinateName("azimuth", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getAzi(aziName, sweepno, ray);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return getAzi(aziName, swpNo, ray);
}
else {
return getAzi(aziName+"_HI", sweepno, ray);
}
}
}
public float getAzi(String aziName, int swpNumber, int ray) throws IOException {
float[] aziData = getAzi(aziName, swpNumber);
return aziData[ray];
}
public float getRadialDistance(int gate) throws IOException {
String disName = getRadialVarCoordinateName("distance", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getRadialDist(disName, gate);
} else {
if( sweepno >= nsweepsHR ) {
return getRadialDist(disName, gate);
}
else {
return getRadialDist(disName+"_HI", gate);
}
}
}
public float getRadialDist(String dName, int gate) throws IOException {
Variable dvar = ds.findVariable(dName);
Array data = dvar.read();
dvar.setCachedData(data, false);
Index index = data.getIndex();
return data.getFloat(index.set(gate));
}
public float getTime(int ray) throws IOException {
String tName = getRadialVarCoordinateName("time", sweepVar.getShortName());
if(!isHighResolution(ds) ) {
return getT(tName, sweepno, ray);
} else {
if( sweepno >= nsweepsHR ) {
int swpNo = sweepno - (nsweepsHR);
return getT(tName, swpNo, ray);
}
else {
return getT(tName+"_HI", sweepno,ray);
}
}
}
public String getRadialVarCoordinateName(String coord, String rVar){
String cName;
if(rVar.startsWith("Reflectivity"))
cName = coord + "R";
else if(rVar.startsWith("DifferentialReflectivity"))
cName = coord + "D";
else if(rVar.startsWith("CorrelationCoefficient"))
cName = coord + "C";
else if(rVar.startsWith("DifferentialPhase"))
cName = coord + "P";
else
cName = coord + "V";
return cName;
}
public float getT(String tName, int swpNumber, int ray) throws IOException {
Variable tvar = ds.findVariable(tName);
Array timeData = tvar.read();
tvar.setCachedData(timeData, false);
Index timeIndex = timeData.getIndex();
return timeData.getFloat(timeIndex.set(swpNumber, ray));
}
public float getBeamWidth() {
return 0.95f; // degrees, info from Chris Burkhart
}
public float getNyquistFrequency() {
return 0; // LOOK this may be radial specific
}
public float getRangeToFirstGate() {
try {
return getRadialDistance(0);
} catch (IOException e) {
e.printStackTrace();
return 0.0f;
}
}
public float getGateSize() {
try {
return getRadialDistance(1) - getRadialDistance(0);
} catch (IOException e) {
e.printStackTrace();
return 0.0f;
}
}
public boolean isGateSizeConstant() {
return true;
}
public void clearSweepMemory() {
}
} // LevelII2Sweep class
} // LevelII2Variable
private static void testRadialVariable(RadialDatasetSweep.RadialVariable rv) throws IOException {
int nsweep = rv.getNumSweeps();
//System.out.println("*** radar Sweep number is: \n" + nsweep);
Sweep sw;
for (int i = 0; i < nsweep; i++) {
//ucar.unidata.util.Trace.call1("LevelII2Dataset:testRadialVariable getSweep " + i);
sw = rv.getSweep(i);
//mele = sw.getMeanElevation();
//ucar.unidata.util.Trace.call2("LevelII2Dataset:testRadialVariable getSweep " + i);
float me = sw.getMeanElevation();
System.out.println("*** radar Sweep mean elevation of sweep " + i + " is: " + me);
int nrays = sw.getRadialNumber();
float [] az = new float[nrays];
for (int j = 0; j < nrays; j++) {
float azi = sw.getAzimuth(j);
az[j] = azi;
}
sw.getAzimuth();
sw.readData();
// System.out.println("*** radar Sweep mean elevation of sweep " + i + " is: " + me);
}
sw = rv.getSweep(0);
//ucar.unidata.util.Trace.call1("LevelII2Dataset:testRadialVariable readData");
rv.readAllData();
float [] ddd = sw.readData();
sw.getAzimuth();
sw.getElevation();
//ucar.unidata.util.Trace.call2("LevelII2Dataset:testRadialVariable readData");
assert(null != ddd);
int nrays = sw.getRadialNumber();
float [] az = new float[nrays];
for (int i = 0; i < nrays; i++) {
int ngates = sw.getGateNumber();
assert(ngates > 0);
float [] d = sw.readData(i);
assert(null != d);
// float [] e = sw.readDataNew(i);
// assert(null != e);
float azi = sw.getAzimuth(i);
assert(azi > 0);
az[i] = azi;
float ele = sw.getElevation(i);
assert(ele > 0);
float la = (float) sw.getOrigin(i).getLatitude();
assert(la > 0);
float lo = (float) sw.getOrigin(i).getLongitude();
assert(lo > 0);
float al = (float) sw.getOrigin(i).getAltitude();
assert(al > 0);
}
assert(0 != nrays);
}
public static void main(String args[]) throws Exception, IOException, InstantiationException, IllegalAccessException {
// String fileIn = "/home/yuanho/Download/KCLX_20091019_2021";
String fileIn ="C:/Users/yuanho/Downloads/Level2_KCBW_20110307_2351.ar2v";
//RadialDatasetSweepFactory datasetFactory = new RadialDatasetSweepFactory();
//RadialDatasetSweep rds = datasetFactory.open(fileIn, null);
//ucar.unidata.util.Trace.call1("LevelII2Dataset:main dataset");
RadialDatasetSweep rds = (RadialDatasetSweep) TypedDatasetFactory.open( FeatureType.RADIAL, fileIn, null, new StringBuilder());
//ucar.unidata.util.Trace.call2("LevelII2Dataset:main dataset");
String id = rds.getRadarID();
String name = rds.getRadarName();
if (rds.isStationary()) {
System.out.println("*** radar is stationary with name and id: " + name + " " + id);
}
// List rvars = rds.getDataVariables();
RadialDatasetSweep.RadialVariable vDM = (RadialDatasetSweep.RadialVariable) rds.getDataVariable("Reflectivity");
vDM.readAllData();
testRadialVariable(vDM);
// for (int i = 0; i < rvars.size(); i++) {
// RadialDatasetSweep.RadialVariable rv = (RadialDatasetSweep.RadialVariable) rvars.get(i);
// testRadialVariable(rv);
// RadialCoordSys.makeRadialCoordSys( "desc", CoordinateSystem cs, VariableEnhanced v);
// ucar.nc2.dt.radial.RadialCoordSys rcsys = rv.getRadialCoordSys();
// }
}
} // LevelII2Dataset