/**
* Read the data for each variable passed in
*
* @param v2
* @param section
* @return output data
* @throws IOException
* @throws ucar.ma2.InvalidRangeException
*/
public Array readData(Variable v2, Section section) throws IOException, InvalidRangeException {
// subset
Object data;
Array outputData;
byte[] vdata = null;
NOWRadheader.Vinfo vinfo;
ByteBuffer bos;
List<Range> ranges = section.getRanges();
vinfo = (NOWRadheader.Vinfo) v2.getSPobject();
try {
vdata = headerParser.getData((int) vinfo.hoff);
} catch (Exception e) {
}
bos = ByteBuffer.wrap(vdata);
data = readOneScanData(bos, vinfo, v2.getShortName());
outputData = Array.factory(v2.getDataType().getPrimitiveClassType(), v2.getShape(), data);
outputData = outputData.flip(1);
// outputData = outputData.flip(2);
return (outputData.sectionNoReduce(ranges).copy());
// return outputData;
}
public void testAggCoordVar2(NetcdfFile ncfile) {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1 : time.getRank();
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.INT;
assert time.getDimension(0) == ncfile.findDimension("time");
try {
Array data = time.read();
assert (data instanceof ArrayInt);
IndexIterator dataI = data.getIndexIterator();
assert dataI.getIntNext() == 0 : dataI.getIntCurrent();
assert dataI.getIntNext() == 1 : dataI.getIntCurrent();
assert dataI.getIntNext() == 2 : dataI.getIntCurrent();
} catch (IOException io) {
io.printStackTrace();
assert false;
}
}
public void testAggCoordVar(NetcdfFile ncfile) {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1 : time.getRank();
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.INT;
assert time.getDimension(0) == ncfile.findDimension("time");
try {
Array data = time.read();
assert (data instanceof ArrayInt.D1) : data.getClass().getName();
ArrayInt.D1 dataI = (ArrayInt.D1) data;
assert dataI.get(0) == 0;
assert dataI.get(1) == 10;
assert dataI.get(2) == 99;
} catch (IOException io) {
io.printStackTrace();
assert false;
}
}
public void testAggCoordVar(NetcdfFile ncfile) {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1;
assert time.getSize() == 3;
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.DOUBLE;
assert time.getDimension(0) == ncfile.findDimension("time");
try {
Array data = time.read();
assert data.getRank() == 1;
assert data.getSize() == 3;
assert data.getShape()[0] == 3;
assert data.getElementType() == double.class;
int count = 0;
IndexIterator dataI = data.getIndexIterator();
while (dataI.hasNext()) {
assert Misc.closeEnough(dataI.getDoubleNext(), result[count]);
count++;
}
} catch (IOException io) {
io.printStackTrace();
assert false;
}
}
private void copySome(NetcdfFileWriteable ncfile, Variable oldVar, int nelems)
throws IOException {
String newName = N3iosp.makeValidNetcdfObjectName(oldVar.getShortName());
int[] shape = oldVar.getShape();
int[] origin = new int[oldVar.getRank()];
int size = shape[0];
for (int i = 0; i < size; i += nelems) {
origin[0] = i;
int left = size - i;
shape[0] = Math.min(nelems, left);
Array data;
try {
data = oldVar.read(origin, shape);
if (oldVar.getDataType() == DataType.STRING) {
data = convertToChar(ncfile.findVariable(newName), data);
}
if (data.getSize() > 0) { // zero when record dimension = 0
ncfile.write(newName, origin, data);
if (debug) System.out.println("write " + data.getSize() + " bytes");
}
} catch (InvalidRangeException e) {
e.printStackTrace();
throw new IOException(e.getMessage());
}
}
}
private int addAttributes(opendap.dap.AttributeTable table, Variable v, Iterator iter) {
int count = 0;
// add attribute table for this variable
while (iter.hasNext()) {
Attribute att = (Attribute) iter.next();
int dods_type = DODSNetcdfFile.convertToDODSType(att.getDataType(), false);
try {
String attName = NcDDS.escapeName(att.getName());
if (att.isString()) {
/* FIX String value = escapeAttributeStringValues(att.getStringValue());
table.appendAttribute(attName, dods_type, "\""+value+"\"");
*/
table.appendAttribute(attName, dods_type, att.getStringValue());
} else {
// cant send signed bytes
if (att.getDataType() == DataType.BYTE) {
boolean signed = false;
for (int i = 0; i < att.getLength(); i++) {
if (att.getNumericValue(i).byteValue() < 0) signed = true;
}
if (signed) // promote to signed short
dods_type = opendap.dap.Attribute.INT16;
}
for (int i = 0; i < att.getLength(); i++)
table.appendAttribute(attName, dods_type, att.getNumericValue(i).toString());
}
count++;
} catch (Exception e) {
log.error(
"Error appending attribute " + att.getName() + " = " + att.getStringValue() + "\n" + e);
}
} // loop over variable attributes
// kludgy thing to map char arrays to DODS Strings
if ((v != null) && (v.getDataType().getPrimitiveClassType() == char.class)) {
int rank = v.getRank();
int strlen = (rank == 0) ? 0 : v.getShape(rank - 1);
Dimension dim = (rank == 0) ? null : v.getDimension(rank - 1);
try {
opendap.dap.AttributeTable dodsTable = table.appendContainer("DODS");
dodsTable.appendAttribute("strlen", opendap.dap.Attribute.INT32, Integer.toString(strlen));
if ((dim != null) && dim.isShared())
dodsTable.appendAttribute("dimName", opendap.dap.Attribute.STRING, dim.getName());
count++;
} catch (Exception e) {
log.error("Error appending attribute strlen\n" + e);
}
}
return count;
}
private Array convertToChar(Variable newVar, Array oldData) {
ArrayChar newData = (ArrayChar) Array.factory(DataType.CHAR, newVar.getShape());
Index ima = newData.getIndex();
IndexIterator ii = oldData.getIndexIterator();
while (ii.hasNext()) {
String s = (String) ii.getObjectNext();
int[] c = ii.getCurrentCounter();
for (int i = 0; i < c.length; i++) ima.setDim(i, c[i]);
newData.setString(ima, s);
}
return newData;
}
private void doWrite2(NetcdfFileWriteable ncfile, String varName) throws Exception {
Variable v = ncfile.findVariable(varName);
int[] w = getWeights(v);
int[] shape = v.getShape();
Array aa = Array.factory(v.getDataType().getPrimitiveClassType(), shape);
Index ima = aa.getIndex();
for (int i = 0; i < shape[0]; i++) {
for (int j = 0; j < shape[1]; j++) {
aa.setDouble(ima.set(i, j), (double) (i * w[0] + j * w[1]));
}
}
ncfile.write(varName, aa);
}
/**
* Read data from a top level Variable and return a memory resident Array.
*
* @param v2 Variable. It may have FLOAT/INTEGER data type.
* @param section wanted section of data of Variable. The section list is a list of ucar.ma2.Range
* which define the requested data subset.
* @return Array of data which will be read from Variable through this call.
*/
public Array readData1(ucar.nc2.Variable v2, Section section)
throws IOException, InvalidRangeException {
// doData(raf, ncfile, varList);
int[] sh = section.getShape();
Array temp = Array.factory(v2.getDataType(), sh);
long pos0 = 0;
// Suppose that the data has LayoutRegular
LayoutRegular index = new LayoutRegular(pos0, v2.getElementSize(), v2.getShape(), section);
if (v2.getShortName().startsWith("time") | v2.getShortName().startsWith("numGates")) {
temp = readIntData(index, v2);
} else {
temp = readFloatData(index, v2);
}
return temp;
}
public void testReadData(NetcdfFile ncfile, String name) throws IOException {
Variable v = ncfile.findVariable(name);
assert null != v;
assert v.getShortName().equals(name);
assert v.getRank() == 3;
assert v.getSize() == 36 : v.getSize();
assert v.getShape()[0] == 3;
assert v.getShape()[1] == 3;
assert v.getShape()[2] == 4;
assert v.getDataType() == DataType.DOUBLE;
assert !v.isCoordinateVariable();
assert v.getDimension(0) == ncfile.findDimension("time");
assert v.getDimension(1) == ncfile.findDimension("lat");
assert v.getDimension(2) == ncfile.findDimension("lon");
Array data = v.read();
assert data.getRank() == 3;
assert data.getSize() == 36;
assert data.getShape()[0] == 3;
assert data.getShape()[1] == 3;
assert data.getShape()[2] == 4;
assert data.getElementType() == double.class;
int[] shape = data.getShape();
Index tIndex = data.getIndex();
for (int i = 0; i < shape[0]; i++)
for (int j = 0; j < shape[1]; j++)
for (int k = 0; k < shape[2]; k++) {
double val = data.getDouble(tIndex.set(i, j, k));
// System.out.println(" "+val);
assert TestUtils.close(val, 100 * i + 10 * j + k) : val;
}
}
public Array getData(Range range, String parameterName)
throws IOException, InvalidRangeException {
Variable variable = ncfile.getRootGroup().findVariable(parameterName);
int varRank = variable.getRank();
int[] varShape = variable.getShape();
List section = new ArrayList(varRank);
section.add(range);
for (int i = 1; i < varRank; i++) {
section.add(new Range(0, varShape[i] - 1));
}
Array array = variable.read(section);
if (array.getShape()[0] == 1) {
return (array.reduce(0));
} else {
return (array);
}
// return( array.getShape()[0] == 1 ? array.reduce( 0 ) : array);
}
protected Band addNewBand(Product product, Variable variable) {
final int sceneRasterWidth = product.getSceneRasterWidth();
final int sceneRasterHeight = product.getSceneRasterHeight();
Band band = null;
int variableRank = variable.getRank();
if (variableRank == 2) {
final int[] dimensions = variable.getShape();
final int height = dimensions[0] - leadLineSkip - tailLineSkip;
final int width = dimensions[1];
if (height == sceneRasterHeight && width == sceneRasterWidth) {
final String name = variable.getShortName();
final int dataType = getProductDataType(variable);
band = new Band(name, dataType, width, height);
final String validExpression = bandInfoMap.get(name);
if (validExpression != null && !validExpression.equals("")) {
band.setValidPixelExpression(validExpression);
}
product.addBand(band);
try {
band.setNoDataValue(
(double) variable.findAttribute("bad_value_scaled").getNumericValue().floatValue());
band.setNoDataValueUsed(true);
} catch (Exception ignored) {
}
final List<Attribute> list = variable.getAttributes();
for (Attribute hdfAttribute : list) {
final String attribName = hdfAttribute.getShortName();
if ("units".equals(attribName)) {
band.setUnit(hdfAttribute.getStringValue());
} else if ("long_name".equals(attribName)) {
band.setDescription(hdfAttribute.getStringValue());
} else if ("slope".equals(attribName)) {
band.setScalingFactor(hdfAttribute.getNumericValue(0).doubleValue());
} else if ("intercept".equals(attribName)) {
band.setScalingOffset(hdfAttribute.getNumericValue(0).doubleValue());
}
}
}
}
return band;
}
public void testAggCoordVar3(NetcdfFile ncfile) throws IOException {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1 : time.getRank();
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.DOUBLE : time.getDataType();
assert time.getDimension(0) == ncfile.findDimension("time");
Array data = time.read();
assert (data instanceof ArrayDouble);
IndexIterator dataI = data.getIndexIterator();
double val = dataI.getDoubleNext();
assert Misc.closeEnough(val, 0.0) : val;
assert Misc.closeEnough(dataI.getDoubleNext(), 10.0) : dataI.getDoubleCurrent();
assert Misc.closeEnough(dataI.getDoubleNext(), 99.0) : dataI.getDoubleCurrent();
}
public void testAggCoordVarScan(NetcdfFile ncfile) throws IOException {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1 : time.getRank();
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.INT : time.getDataType();
assert time.getDimension(0) == ncfile.findDimension("time");
int count = 0;
Array data = time.read();
assert (data instanceof ArrayInt);
while (data.hasNext()) {
int val = data.nextInt();
assert val == count * 10 : val + "!=" + count * 10;
count++;
}
}
public void testAggCoordVarSubsetDefeatLocalCache(NetcdfFile ncfile)
throws InvalidRangeException, IOException {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1;
assert time.getSize() == 3;
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.DOUBLE;
assert time.getDimension(0) == ncfile.findDimension("time");
time.setCachedData(null, false);
Array data = time.read("1:2");
assert data.getRank() == 1;
assert data.getSize() == 2;
assert data.getShape()[0] == 2;
assert data.getElementType() == double.class;
int count = 0;
IndexIterator dataI = data.getIndexIterator();
while (dataI.hasNext()) {
assert Misc.closeEnough(dataI.getDoubleNext(), result[count + 1]);
count++;
}
time.setCachedData(null, false);
data = time.read("0:2:2");
assert data.getRank() == 1;
assert data.getSize() == 2;
assert data.getShape()[0] == 2;
assert data.getElementType() == double.class;
count = 0;
dataI = data.getIndexIterator();
while (dataI.hasNext()) {
assert Misc.closeEnough(dataI.getDoubleNext(), result[count * 2]);
count++;
}
}
/** Converts a 3D variable to a {@link Metadata} representation */
private static void convert3DVariable(GridDatatype g, Date date, Map<String, Metadata> metaMap)
throws IOException {
Variable v = g.getVariable();
System.out.println("Reading: " + v.getFullName());
Array values = v.read();
int h = v.getShape(1);
int w = v.getShape(2);
for (int i = 0; i < h; ++i) {
for (int j = 0; j < w; ++j) {
LatLonPoint pt = g.getCoordinateSystem().getLatLon(j, i);
String hash =
GeoHash.encode((float) pt.getLatitude(), (float) pt.getLongitude(), 10).toLowerCase();
Metadata meta = metaMap.get(hash);
if (meta == null) {
/* We need to create Metadata for this location */
meta = new Metadata();
UUID metaUUID = UUID.nameUUIDFromBytes(hash.getBytes());
meta.setName(metaUUID.toString());
SpatialProperties location =
new SpatialProperties((float) pt.getLatitude(), (float) pt.getLongitude());
meta.setSpatialProperties(location);
TemporalProperties time = new TemporalProperties(date.getTime());
meta.setTemporalProperties(time);
metaMap.put(hash, meta);
}
String featureName = v.getFullName().toLowerCase();
float featureValue = values.getFloat(i * w + j);
Feature feature = new Feature(featureName, featureValue);
meta.putAttribute(feature);
}
}
}
public void testAggCoordVarNoCoordsDir(NetcdfFile ncfile) throws IOException {
Variable time = ncfile.findVariable("time");
assert null != time;
assert time.getShortName().equals("time");
assert time.getRank() == 1 : time.getRank();
assert time.getShape()[0] == 3;
assert time.getDataType() == DataType.STRING : time.getDataType();
assert time.getDimension(0) == ncfile.findDimension("time");
Array data = time.read();
assert (data instanceof ArrayObject);
IndexIterator dataI = data.getIndexIterator();
String coordName = (String) dataI.getObjectNext();
assert coordName.equals("time0Dir.nc") : coordName;
coordName = (String) dataI.getObjectNext();
assert coordName.equals("time1Dir.nc") : coordName;
coordName = (String) dataI.getObjectNext();
assert coordName.equals("time2Dir.nc") : coordName;
}
protected synchronized void invalidateLines(SkipBadNav skipBadNav, Variable latitude)
throws IOException {
final int[] shape = latitude.getShape();
try {
int lineCount = shape[0];
final int[] start = new int[] {0, 0};
// just grab the first and last pixel for each scan line
final int[] stride = new int[] {1, shape[1] - 1};
final int[] count = new int[] {shape[0], shape[1]};
Section section = new Section(start, count, stride);
Array array;
synchronized (ncFile) {
array = latitude.read(section);
}
for (int i = 0; i < lineCount; i++) {
int ix = i * 2;
float valstart = array.getFloat(ix);
float valend = array.getFloat(ix + 1);
if (skipBadNav.isBadNav(valstart) || skipBadNav.isBadNav(valend)) {
leadLineSkip++;
} else {
break;
}
}
for (int i = lineCount; i-- > 0; ) {
int ix = i * 2;
float valstart = array.getFloat(ix);
float valend = array.getFloat(ix + 1);
if (skipBadNav.isBadNav(valstart) || skipBadNav.isBadNav(valend)) {
tailLineSkip++;
} else {
break;
}
}
} catch (InvalidRangeException e) {
throw new IOException(e.getMessage());
}
}
/**
* Copies the contents of single NetCDF files into a block file
*
* @param map
* @param ncf_out
*/
private void copyContent(TreeMap<Long, NetcdfFile> map, NetcdfFileWriteable ncf_out) {
try {
// Write the static information for 1D axes.
ncf_out.write(outTimeName, timeArr);
ncf_out.write(outDepthName, depthArr);
ncf_out.write(outLatName, latArr);
ncf_out.write(outLonName, lonArr);
Iterator<Long> it = map.keySet().iterator();
int ct = 0;
while (it.hasNext()) {
long time = it.next();
System.out.print("\t" + ct + "\tWorking on " + new Date(time));
NetcdfFile copyfile = map.get(time);
int timesteps = copyfile.findDimension(inTimeName).getLength();
Variable invar = copyfile.findVariable(inVarName);
int[] shape = invar.getShape();
shape[0] = 1;
for (int i = 0; i < timesteps; i++) {
int[] origin_in = new int[] {i, 0, 0, 0};
int[] origin_out = new int[] {ct, 0, 0, 0};
ncf_out.write(outVarName, origin_out, invar.read(origin_in, shape));
ct++;
}
System.out.println("\tDone.");
}
} catch (IOException e) {
e.printStackTrace();
} catch (InvalidRangeException e) {
e.printStackTrace();
}
}
public void testCoordVar(NetcdfFile ncfile) {
Variable lat = ncfile.findVariable("lat");
assert null != lat;
assert lat.getShortName().equals("lat");
assert lat.getRank() == 1;
assert lat.getSize() == 3;
assert lat.getShape()[0] == 3;
assert lat.getDataType() == DataType.FLOAT;
assert !lat.isUnlimited();
assert lat.getDimension(0).equals(ncfile.findDimension("lat"));
Attribute att = lat.findAttribute("units");
assert null != att;
assert !att.isArray();
assert att.isString();
assert att.getDataType() == DataType.STRING;
assert att.getStringValue().equals("degrees_north");
assert att.getNumericValue() == null;
assert att.getNumericValue(3) == null;
try {
Array data = lat.read();
assert data.getRank() == 1;
assert data.getSize() == 3;
assert data.getShape()[0] == 3;
assert data.getElementType() == float.class;
IndexIterator dataI = data.getIndexIterator();
assert TestUtils.close(dataI.getDoubleNext(), 41.0);
assert TestUtils.close(dataI.getDoubleNext(), 40.0);
assert TestUtils.close(dataI.getDoubleNext(), 39.0);
} catch (IOException io) {
}
}
/** Retrieves the shapes of the velocity variables (u,v,w) */
@Override
public int[][] getShape() {
return new int[][] {uVar.getShape(), vVar.getShape(), wVar.getShape()};
}
private void makeCoordinateDataWithMissing(
int datatype,
Variable time,
Variable elev,
Variable azi,
Variable nradialsVar,
Variable ngatesVar,
List groups) {
Array timeData = Array.factory(time.getDataType().getPrimitiveClassType(), time.getShape());
Index timeIndex = timeData.getIndex();
Array elevData = Array.factory(elev.getDataType().getPrimitiveClassType(), elev.getShape());
Index elevIndex = elevData.getIndex();
Array aziData = Array.factory(azi.getDataType().getPrimitiveClassType(), azi.getShape());
Index aziIndex = aziData.getIndex();
Array nradialsData =
Array.factory(nradialsVar.getDataType().getPrimitiveClassType(), nradialsVar.getShape());
IndexIterator nradialsIter = nradialsData.getIndexIterator();
Array ngatesData =
Array.factory(ngatesVar.getDataType().getPrimitiveClassType(), ngatesVar.getShape());
IndexIterator ngatesIter = ngatesData.getIndexIterator();
// first fill with missing data
IndexIterator ii = timeData.getIndexIterator();
while (ii.hasNext()) ii.setIntNext(MISSING_INT);
ii = elevData.getIndexIterator();
while (ii.hasNext()) ii.setFloatNext(MISSING_FLOAT);
ii = aziData.getIndexIterator();
while (ii.hasNext()) ii.setFloatNext(MISSING_FLOAT);
// now set the coordinate variables from the Cinrad2Record radial
int last_msecs = Integer.MIN_VALUE;
int nscans = groups.size();
try {
for (int scan = 0; scan < nscans; scan++) {
List scanGroup = (List) groups.get(scan);
int nradials = scanGroup.size();
Cinrad2Record first = null;
for (int j = 0; j < nradials; j++) {
Cinrad2Record r = (Cinrad2Record) scanGroup.get(j);
if (first == null) first = r;
int radial = r.radial_num - 1;
timeData.setInt(timeIndex.set(scan, radial), r.data_msecs);
elevData.setFloat(elevIndex.set(scan, radial), r.getElevation());
aziData.setFloat(aziIndex.set(scan, radial), r.getAzimuth());
if (r.data_msecs < last_msecs)
logger.warn("makeCoordinateData time out of order " + r.data_msecs);
last_msecs = r.data_msecs;
}
nradialsIter.setIntNext(nradials);
ngatesIter.setIntNext(first.getGateCount(datatype));
}
} catch (java.lang.ArrayIndexOutOfBoundsException ae) {
logger.debug("Cinrad2IOSP.uncompress ", ae);
}
time.setCachedData(timeData, false);
elev.setCachedData(elevData, false);
azi.setCachedData(aziData, false);
nradialsVar.setCachedData(nradialsData, false);
ngatesVar.setCachedData(ngatesData, false);
}
/**
* Fill all of the variables/attributes in the ncfile
*
* @param ncfile NetcdfFile object which will be filled.
* @param bst number of seconds since midnight for start of sweep
* @param yr year of start of each sweep
* @param m month of start of each sweep
* @param dda day of start of each sweep
* @param varList ArrayList of Variables of ncfile
* @param recHdr java.util.Map with values for Attributes
*/
public void doNetcdfFileCoordinate(
ucar.nc2.NetcdfFile ncfile,
int[] bst,
short[] yr,
short[] m,
short[] dda,
ArrayList<Variable> varList,
java.util.Map<String, Number> recHdr) {
// prepare attribute values
String[] unit = {" ", "dbZ", "dbZ", "m/sec", "m/sec", "dB"};
String def_datafile = "SIGMET-IRIS";
Short header_length = 80;
Short ray_header_length = 6;
int ngates = 0;
float radar_lat =
recHdr.get("radar_lat").floatValue(); // System.out.println("rad_lat="+radar_lat);
float radar_lon =
recHdr.get("radar_lon").floatValue(); // System.out.println("rad_lon="+radar_lon);
short ground_height =
recHdr.get("ground_height").shortValue(); // System.out.println("ground_H="+ground_height);
short radar_height =
recHdr.get("radar_height").shortValue(); // System.out.println("radar_H="+radar_height);
int radar_alt =
(recHdr.get("radar_alt").intValue()) / 100; // System.out.println("rad_alt="+radar_alt);
short num_rays =
recHdr.get("num_rays").shortValue(); // System.out.println("HERE!! num_rays="+num_rays);
float range_first =
(recHdr.get("range_first").intValue())
* 0.01f; // System.out.println("range_1st="+range_first);
float range_last =
(recHdr.get("range_last").intValue()) * 0.01f; // System.out.println("step="+step);
short number_sweeps = recHdr.get("number_sweeps").shortValue();
int nparams = (recHdr.get("nparams").intValue()); // System.out.println("nparams="+nparams);
// define date/time
// int last_t=(int)(ray[nparams*number_sweeps-1][num_rays-1].getTime());
int last_t = volScan.lastRay.getTime();
String sss1 = Short.toString(m[0]);
if (sss1.length() < 2) sss1 = "0" + sss1;
String sss2 = Short.toString(dda[0]);
if (sss2.length() < 2) sss2 = "0" + sss2;
String base_date0 = String.valueOf(yr[0]) + "-" + sss1 + "-" + sss2;
String sss11 = Short.toString(m[number_sweeps - 1]);
if (sss11.length() < 2) sss11 = "0" + sss11;
String sss22 = Short.toString(dda[number_sweeps - 1]);
if (sss22.length() < 2) sss22 = "0" + sss22;
String base_date1 = String.valueOf(yr[number_sweeps - 1]) + "-" + sss11 + "-" + sss22;
String start_time = base_date0 + "T" + calcTime(bst[0], 0) + "Z";
String end_time = base_date1 + "T" + calcTime(bst[number_sweeps - 1], last_t) + "Z";
ncfile.addAttribute(null, new Attribute("time_coverage_start", start_time));
ncfile.addAttribute(null, new Attribute("time_coverage_end", end_time));
// set all of Variables
try {
int sz = varList.size();
ArrayFloat.D2[] dataArr = new ArrayFloat.D2[nparams * number_sweeps];
Index[] dataIndex = new Index[nparams * number_sweeps];
Ray[] rtemp = new Ray[(int) num_rays];
// NCdump.printArray(dataArr[0], "Total_Power", System.out, null);
Variable[] distanceR = new Variable[number_sweeps];
ArrayFloat.D1[] distArr = new ArrayFloat.D1[number_sweeps];
Index[] distIndex = new Index[number_sweeps];
String distName = "distanceR";
for (int i = 0; i < number_sweeps; i++) {
if (number_sweeps > 1) {
distName = "distanceR_sweep_" + (i + 1);
}
for (Variable aVarList : varList) {
if ((aVarList.getShortName()).equals(distName.trim())) {
distanceR[i] = aVarList;
break;
}
}
distArr[i] = (ArrayFloat.D1) Array.factory(DataType.FLOAT, distanceR[i].getShape());
distIndex[i] = distArr[i].getIndex();
// for (int jj=0; jj<num_rays; jj++) { rtemp[jj]=ray[i][jj]; }
ngates = sweep_bins[i];
float stp = calcStep(range_first, range_last, (short) ngates);
for (int ii = 0; ii < ngates; ii++) {
distArr[i].setFloat(distIndex[i].set(ii), (range_first + ii * stp));
}
}
// NCdump.printArray(distArr[0], "distanceR", System.out, null);
List rgp = volScan.getTotalPowerGroups();
if (rgp.size() == 0) rgp = volScan.getReflectivityGroups();
List[] sgp = new ArrayList[number_sweeps];
for (int i = 0; i < number_sweeps; i++) {
sgp[i] = (List) rgp.get((short) i);
}
Variable[] time = new Variable[number_sweeps];
ArrayInt.D1[] timeArr = new ArrayInt.D1[number_sweeps];
Index[] timeIndex = new Index[number_sweeps];
String t_n = "time";
for (int i = 0; i < number_sweeps; i++) {
if (number_sweeps > 1) {
t_n = "time_sweep_" + (i + 1);
}
for (Variable aVarList : varList) {
if ((aVarList.getShortName()).equals(t_n.trim())) {
time[i] = aVarList;
break;
}
}
// if (time[i].getShape().length == 0) {
// continue;
// }
timeArr[i] = (ArrayInt.D1) Array.factory(DataType.INT, time[i].getShape());
timeIndex[i] = timeArr[i].getIndex();
List rlist = sgp[i];
for (int jj = 0; jj < num_rays; jj++) {
rtemp[jj] = (Ray) rlist.get(jj);
} // ray[i][jj]; }
for (int jj = 0; jj < num_rays; jj++) {
timeArr[i].setInt(timeIndex[i].set(jj), rtemp[jj].getTime());
}
}
// NCdump.printArray(timeArr[0], "time", System.out, null);
Variable[] azimuthR = new Variable[number_sweeps];
ArrayFloat.D1[] azimArr = new ArrayFloat.D1[number_sweeps];
Index[] azimIndex = new Index[number_sweeps];
String azimName = "azimuthR";
for (int i = 0; i < number_sweeps; i++) {
if (number_sweeps > 1) {
azimName = "azimuthR_sweep_" + (i + 1);
}
for (Variable aVarList : varList) {
if ((aVarList.getShortName()).equals(azimName.trim())) {
azimuthR[i] = aVarList;
break;
}
}
azimArr[i] = (ArrayFloat.D1) Array.factory(DataType.FLOAT, azimuthR[i].getShape());
azimIndex[i] = azimArr[i].getIndex();
List rlist = sgp[i];
for (int jj = 0; jj < num_rays; jj++) {
rtemp[jj] = (Ray) rlist.get(jj);
} // ray[i][jj]; }
for (int jj = 0; jj < num_rays; jj++) {
azimArr[i].setFloat(azimIndex[i].set(jj), rtemp[jj].getAz());
}
}
// NCdump.printArray(azimArr[0], "azimuthR", System.out, null);
Variable[] elevationR = new Variable[number_sweeps];
ArrayFloat.D1[] elevArr = new ArrayFloat.D1[number_sweeps];
Index[] elevIndex = new Index[number_sweeps];
String elevName = "elevationR";
for (int i = 0; i < number_sweeps; i++) {
if (number_sweeps > 1) {
elevName = "elevationR_sweep_" + (i + 1);
}
for (Variable aVarList : varList) {
if ((aVarList.getShortName()).equals(elevName.trim())) {
elevationR[i] = aVarList;
break;
}
}
elevArr[i] = (ArrayFloat.D1) Array.factory(DataType.FLOAT, elevationR[i].getShape());
elevIndex[i] = elevArr[i].getIndex();
List rlist = sgp[i];
for (int jj = 0; jj < num_rays; jj++) {
rtemp[jj] = (Ray) rlist.get(jj);
} // ray[i][jj]; }
for (int jj = 0; jj < num_rays; jj++) {
elevArr[i].setFloat(elevIndex[i].set(jj), rtemp[jj].getElev());
}
}
// NCdump.printArray(elevArr[0], "elevationR", System.out, null);
Variable numGates = null;
for (int i = 0; i < number_sweeps; i++) {
for (Variable aVarList : varList) {
if ((aVarList.getShortName()).equals("numGates")) {
numGates = aVarList;
break;
}
}
}
ArrayInt.D1 gatesArr = (ArrayInt.D1) Array.factory(DataType.INT, numGates.getShape());
Index gatesIndex = gatesArr.getIndex();
for (int i = 0; i < number_sweeps; i++) {
List rlist = sgp[i];
for (int jj = 0; jj < num_rays; jj++) {
rtemp[jj] = (Ray) rlist.get(jj);
} // ray[i][jj]; }
ngates = rtemp[0].getBins();
gatesArr.setInt(gatesIndex.set(i), ngates);
}
for (int i = 0; i < number_sweeps; i++) {
distanceR[i].setCachedData(distArr[i], false);
time[i].setCachedData(timeArr[i], false);
azimuthR[i].setCachedData(azimArr[i], false);
elevationR[i].setCachedData(elevArr[i], false);
}
numGates.setCachedData(gatesArr, false);
// startSweep.setCachedData(sweepArr, false);
// -------------------------------------------------
// int b=(int)ray[0][0].getBins();
// -- Test of readData() and readToByteChannel() -----------------
/*
Range r1=new Range(356, 359);
Range r2=new Range(0, 15);
java.util.List arlist=new ArrayList();
arlist.add(r1);
arlist.add(r2);
Array testArr=readData(v[0], new Section(arlist));
NCdump.printArray(testArr, "Total_Power_sweep_1", System.out, null);
WritableByteChannel channel=new FileOutputStream(new File("C:\\netcdf\\tt.dat")).getChannel();
long ikk=readToByteChannel(v[0], new Section(arlist), channel);
System.out.println("IKK="+ikk);
channel.close();
*/
// ---------------------------------------------------
} catch (Exception e) {
System.out.println(e.toString());
e.printStackTrace();
}
} // ----------- end of doNetcdf ----------------------------------
public void addGeocoding(Product product) throws IOException {
double pixelX = 0.5;
double pixelY = 0.5;
double easting;
double northing;
double pixelSizeX;
double pixelSizeY;
boolean pixelRegistered = true;
if (productReader.getProductType() == SeadasProductReader.ProductType.ANCNRT) {
pixelRegistered = false;
}
if (productReader.getProductType() == SeadasProductReader.ProductType.OISST) {
Variable lon = ncFile.findVariable("lon");
Variable lat = ncFile.findVariable("lat");
Array lonData = lon.read();
// TODO: handle the 180 degree shift with the NOAA products - need to modify
// SeaDasFileReader:readBandData
// Below is a snippet from elsewhere in BEAM that deals with this issue...
// SPECIAL CASE: check if we have a global geographic lat/lon with lon from 0..360 instead of
// -180..180
// if (isShifted180(lonData)) {
// // if this is true, subtract 180 from all longitudes and
// // add a global attribute which will be analyzed when setting up the
// image(s)
// final List<Variable> variables = ncFile.getVariables();
// for (Variable next : variables) {
// next.getAttributes().add(new Attribute("LONGITUDE_SHIFTED_180", 1));
// }
// for (int i = 0; i < lonData.getSize(); i++) {
// final Index ii = lonData.getIndex().set(i);
// final double theLon = lonData.getDouble(ii) - 180.0;
// lonData.setDouble(ii, theLon);
// }
// }
final Array latData = lat.read();
final int lonSize = lon.getShape(0);
final Index i0 = lonData.getIndex().set(0);
final Index i1 = lonData.getIndex().set(lonSize - 1);
pixelSizeX =
(lonData.getDouble(i1) - lonData.getDouble(i0)) / (product.getSceneRasterWidth() - 1);
easting = lonData.getDouble(i0);
final int latSize = lat.getShape(0);
final Index j0 = latData.getIndex().set(0);
final Index j1 = latData.getIndex().set(latSize - 1);
pixelSizeY =
(latData.getDouble(j1) - latData.getDouble(j0)) / (product.getSceneRasterHeight() - 1);
// this should be the 'normal' case
if (pixelSizeY < 0) {
pixelSizeY = -pixelSizeY;
northing = latData.getDouble(latData.getIndex().set(0));
} else {
northing = latData.getDouble(latData.getIndex().set(latSize - 1));
}
northing -= pixelSizeX / 2.0;
easting += pixelSizeY / 2.0;
try {
product.setGeoCoding(
new CrsGeoCoding(
DefaultGeographicCRS.WGS84,
product.getSceneRasterWidth(),
product.getSceneRasterHeight(),
easting,
northing,
pixelSizeX,
pixelSizeY,
pixelX,
pixelY));
} catch (FactoryException e) {
throw new IllegalStateException(e);
} catch (TransformException e) {
throw new IllegalStateException(e);
}
} else {
String east = "Easternmost_Longitude";
String west = "Westernmost_Longitude";
String north = "Northernmost_Latitude";
String south = "Southernmost_Latitude";
Attribute latmax = ncFile.findGlobalAttributeIgnoreCase("geospatial_lat_max");
if (latmax != null) {
east = "geospatial_lon_max";
west = "geospatial_lon_min";
north = "geospatial_lat_max";
south = "geospatial_lat_min";
} else {
latmax = ncFile.findGlobalAttributeIgnoreCase("upper_lat");
if (latmax != null) {
east = "right_lon";
west = "left_lon";
north = "upper_lat";
south = "lower_lat";
}
}
final MetadataElement globalAttributes =
product.getMetadataRoot().getElement("Global_Attributes");
easting = (float) globalAttributes.getAttribute(east).getData().getElemDouble();
float westing = (float) globalAttributes.getAttribute(west).getData().getElemDouble();
pixelSizeX = Math.abs(easting - westing) / product.getSceneRasterWidth();
northing = (float) globalAttributes.getAttribute(north).getData().getElemDouble();
float southing = (float) globalAttributes.getAttribute(south).getData().getElemDouble();
if (northing < southing) {
mustFlipY = true;
northing = (float) globalAttributes.getAttribute(south).getData().getElemDouble();
southing = (float) globalAttributes.getAttribute(north).getData().getElemDouble();
}
pixelSizeY = Math.abs(northing - southing) / product.getSceneRasterHeight();
if (pixelRegistered) {
northing -= pixelSizeY / 2.0;
westing += pixelSizeX / 2.0;
} else {
pixelX = 0.0;
pixelY = 0.0;
}
try {
product.setGeoCoding(
new CrsGeoCoding(
DefaultGeographicCRS.WGS84,
product.getSceneRasterWidth(),
product.getSceneRasterHeight(),
westing,
northing,
pixelSizeX,
pixelSizeY,
pixelX,
pixelY));
} catch (FactoryException e) {
throw new IllegalStateException(e);
} catch (TransformException e) {
throw new IllegalStateException(e);
}
}
}
@Override
public Product createProduct() throws ProductIOException {
int[] dims;
int sceneHeight = 0;
int sceneWidth = 0;
Group geodata = ncFile.findGroup("geophysical_data");
if (productReader.getProductType() == SeadasProductReader.ProductType.OISST) {
dims = ncFile.getVariables().get(4).getShape();
sceneHeight = dims[2];
sceneWidth = dims[3];
mustFlipY = true;
} else if (productReader.getProductType() == SeadasProductReader.ProductType.ANCCLIM) {
List<Variable> vars = ncFile.getVariables();
for (Variable v : vars) {
if (v.getRank() == 2) {
dims = v.getShape();
sceneHeight = dims[0];
sceneWidth = dims[1];
}
}
} else {
if (geodata != null) {
dims = geodata.getVariables().get(0).getShape();
sceneHeight = dims[0];
sceneWidth = dims[1];
} else {
ucar.nc2.Dimension latdim = ncFile.findDimension("lat");
ucar.nc2.Dimension londim = ncFile.findDimension("lon");
if (latdim != null) {
sceneHeight = latdim.getLength();
sceneWidth = londim.getLength();
} else {
dims = ncFile.getVariables().get(0).getShape();
sceneHeight = dims[0];
sceneWidth = dims[1];
}
}
}
String productName = productReader.getInputFile().getName();
try {
productName = getStringAttribute("Product_Name");
} catch (Exception ignored) {
}
SeadasProductReader.ProductType productType = productReader.getProductType();
Product product = new Product(productName, productType.toString(), sceneWidth, sceneHeight);
product.setDescription(productName);
product.setFileLocation(productReader.getInputFile());
product.setProductReader(productReader);
addGlobalMetadata(product);
addSmiMetadata(product);
// variableMap = addBands(product, ncFile.getVariables());
variableMap = addSmiBands(product, ncFile.getVariables());
try {
addGeocoding(product);
} catch (Exception ignored) {
}
addFlagsAndMasks(product);
if (productReader.getProductType() == SeadasProductReader.ProductType.Bathy) {
mustFlipY = true;
Dimension tileSize = new Dimension(640, 320);
product.setPreferredTileSize(tileSize);
}
return product;
}
protected Map<Band, Variable> addSmiBands(Product product, List<Variable> variables) {
final int sceneRasterWidth = product.getSceneRasterWidth();
final int sceneRasterHeight = product.getSceneRasterHeight();
Map<Band, Variable> bandToVariableMap = new HashMap<Band, Variable>();
for (Variable variable : variables) {
int variableRank = variable.getRank();
if (variableRank == 2) {
final int[] dimensions = variable.getShape();
final int height = dimensions[0];
final int width = dimensions[1];
if (height == sceneRasterHeight && width == sceneRasterWidth) {
String name = variable.getShortName();
if (name.equals("l3m_data")) {
try {
name = getStringAttribute("Parameter") + " " + getStringAttribute("Measure");
} catch (Exception e) {
e.printStackTrace();
}
}
final int dataType = getProductDataType(variable);
final Band band = new Band(name, dataType, width, height);
// band = new Band(name, dataType, width, height);
product.addBand(band);
try {
Attribute fillvalue = variable.findAttribute("_FillValue");
if (fillvalue == null) {
fillvalue = variable.findAttribute("Fill");
}
if (fillvalue != null) {
band.setNoDataValue((double) fillvalue.getNumericValue().floatValue());
band.setNoDataValueUsed(true);
}
} catch (Exception ignored) {
}
bandToVariableMap.put(band, variable);
// Set units, if defined
try {
band.setUnit(getStringAttribute("Units"));
} catch (Exception ignored) {
}
final List<Attribute> list = variable.getAttributes();
double[] validMinMax = {0.0, 0.0};
for (Attribute hdfAttribute : list) {
final String attribName = hdfAttribute.getShortName();
if ("units".equals(attribName)) {
band.setUnit(hdfAttribute.getStringValue());
} else if ("long_name".equalsIgnoreCase(attribName)) {
band.setDescription(hdfAttribute.getStringValue());
} else if ("slope".equalsIgnoreCase(attribName)) {
band.setScalingFactor(hdfAttribute.getNumericValue(0).doubleValue());
} else if ("intercept".equalsIgnoreCase(attribName)) {
band.setScalingOffset(hdfAttribute.getNumericValue(0).doubleValue());
} else if ("scale_factor".equals(attribName)) {
band.setScalingFactor(hdfAttribute.getNumericValue(0).doubleValue());
} else if ("add_offset".equals(attribName)) {
band.setScalingOffset(hdfAttribute.getNumericValue(0).doubleValue());
} else if (attribName.startsWith("valid_")) {
if ("valid_min".equals(attribName)) {
validMinMax[0] = hdfAttribute.getNumericValue(0).doubleValue();
} else if ("valid_max".equals(attribName)) {
validMinMax[1] = hdfAttribute.getNumericValue(0).doubleValue();
} else if ("valid_range".equals(attribName)) {
validMinMax[0] = hdfAttribute.getNumericValue(0).doubleValue();
validMinMax[1] = hdfAttribute.getNumericValue(1).doubleValue();
}
}
}
if (validMinMax[0] != validMinMax[1]) {
double[] minmax = {0.0, 0.0};
minmax[0] = validMinMax[0];
minmax[1] = validMinMax[1];
if (band.getScalingFactor() != 1.0) {
minmax[0] *= band.getScalingFactor();
minmax[1] *= band.getScalingFactor();
}
if (band.getScalingOffset() != 0.0) {
minmax[0] += band.getScalingOffset();
minmax[1] += band.getScalingOffset();
}
String validExp = format("%s >= %.2f && %s <= %.2f", name, minmax[0], name, minmax[1]);
band.setValidPixelExpression(
validExp); // .format(name, validMinMax[0], name, validMinMax[1]));
}
}
} else if (variableRank == 4) {
final int[] dimensions = variable.getShape();
final int height = dimensions[2];
final int width = dimensions[3];
if (height == sceneRasterHeight && width == sceneRasterWidth) {
String name = variable.getShortName();
final int dataType = getProductDataType(variable);
final Band band = new Band(name, dataType, width, height);
// band = new Band(name, dataType, width, height);
Variable sliced = null;
try {
sliced = variable.slice(0, 0).slice(0, 0);
} catch (InvalidRangeException e) {
e.printStackTrace(); // Todo change body of catch statement.
}
bandToVariableMap.put(band, sliced);
product.addBand(band);
try {
Attribute fillvalue = variable.findAttribute("_FillValue");
if (fillvalue != null) {
band.setNoDataValue((double) fillvalue.getNumericValue().floatValue());
band.setNoDataValueUsed(true);
}
} catch (Exception ignored) {
}
// Set units, if defined
try {
band.setUnit(getStringAttribute("units"));
} catch (Exception ignored) {
}
final List<Attribute> list = variable.getAttributes();
for (Attribute hdfAttribute : list) {
final String attribName = hdfAttribute.getShortName();
if ("scale_factor".equals(attribName)) {
band.setScalingFactor(hdfAttribute.getNumericValue(0).doubleValue());
} else if ("add_offset".equals(attribName)) {
band.setScalingOffset(hdfAttribute.getNumericValue(0).doubleValue());
}
}
}
}
}
return bandToVariableMap;
}
public static void generateObs(NetcdfDataset netcdfdataset) {
try {
ucar.nc2.Variable lon = netcdfdataset.findVariable("lon");
ucar.nc2.Variable lat = netcdfdataset.findVariable("lat");
ucar.nc2.Variable time = netcdfdataset.findVariable("time");
ucar.nc2.Variable BAssta = netcdfdataset.findVariable("BAssta");
Array dataLat = lat.read();
int[] shapeLat = lat.getShape();
Index indexLat = dataLat.getIndex();
Array dataLon = lon.read();
int[] shapeLon = lon.getShape();
Index indexLon = dataLon.getIndex();
Array dataTime = time.read();
Index indexTime = dataTime.getIndex();
// mbari
double minLat = 34.955;
double maxLat = 38.260;
double minLon = -124.780;
double maxLon = -121.809;
int minIndexLat = -Integer.MAX_VALUE;
int minIndexLon = Integer.MAX_VALUE;
int maxIndexlat = Integer.MIN_VALUE;
int maxIndexLon = Integer.MIN_VALUE;
// lon is ginve as +
// int[][] indexLatLon = new int[shapeLat[0]][shapeLon[0]];
List lats = new ArrayList<Integer>();
List lons = new ArrayList<Integer>();
// get lats
for (int i = 0; i < shapeLat[0]; i++) {
Double lat_d = dataLat.getDouble(indexLat.set(i));
if (lat_d >= minLat && lat_d <= maxLat) {
minIndexLat = i;
lats.add(i);
}
}
for (int j = 0; j < shapeLon[0]; j++) {
Double lon_d = dataLon.getDouble(indexLon.set(j));
if (lon_d > 180) {
lon_d = -360 + lon_d;
}
if (lon_d >= minLon && lon_d <= maxLon) {
lons.add(j);
}
}
// get values:
ucar.nc2.Variable bassta = netcdfdataset.findVariable("BAssta");
int indMinLat = (Integer) lats.get(0);
int indMaxLat = (Integer) lats.get(lats.size() - 1);
int indMinLon = (Integer) lons.get(0);
int indMaxLon = (Integer) lons.get(lons.size() - 1);
int indMinTime = 0;
int indMaxTime = time.getShape()[0] - 1;
String s = createString(indMinLat, indMaxLat, indMinLon, indMaxLon, indMinTime, indMaxTime);
// doVar(netcdfdataset, "BAssta", s);
// Array dataVar= bassta.read();
// bassta.getShape()
// System.out.println("lats size: " + lats.size()+" "+"lons size:
// "+lons.size());
// for a given lat lon get time series
// 1st lat lon
s = createString(indMinLat, indMinLat, indMinLon, indMinLon, indMinTime, indMaxTime);
Array arr = BAssta.read(s);
int[] shapeArr = arr.getShape();
Index index = arr.getIndex();
System.out.println(shapeArr);
// [74, 1, 1, 1]
for (int i = 0; i < shapeArr[0]; i++) {
Double d = arr.getDouble(index.set(i, 0, 0, 0));
Double t = dataTime.getDouble(indexTime.set(i));
String timeS = TimeUtil.getISOFromMillisec(t * 1000);
System.out.println(t + " " + timeS + " " + d);
}
// lat lon are fixed, only varying time
// basta[time,alt,lat,lon]
// NCdump.printArray(arr, "array", System.out, null);
// doVar(netcdfdataset, "BAssta", s);
// doVar(netcdfdataset, "time", indMinTime + ":" + indMaxTime);
// while (i < lon.getSize()) {
// System.out.println("obs" + i + " " + lat + " " + lon);
// i++;
// }
} catch (IOException e) {
// TODO Auto-generated catch block
e.printStackTrace();
} catch (InvalidRangeException e) {
// TODO Auto-generated catch block
e.printStackTrace();
}
}
private void makeCoordinateData(
int datatype,
Variable time,
Variable elev,
Variable azi,
Variable nradialsVar,
Variable ngatesVar,
List groups) {
Array timeData = Array.factory(time.getDataType().getPrimitiveClassType(), time.getShape());
IndexIterator timeDataIter = timeData.getIndexIterator();
Array elevData = Array.factory(elev.getDataType().getPrimitiveClassType(), elev.getShape());
IndexIterator elevDataIter = elevData.getIndexIterator();
Array aziData = Array.factory(azi.getDataType().getPrimitiveClassType(), azi.getShape());
IndexIterator aziDataIter = aziData.getIndexIterator();
Array nradialsData =
Array.factory(nradialsVar.getDataType().getPrimitiveClassType(), nradialsVar.getShape());
IndexIterator nradialsIter = nradialsData.getIndexIterator();
Array ngatesData =
Array.factory(ngatesVar.getDataType().getPrimitiveClassType(), ngatesVar.getShape());
IndexIterator ngatesIter = ngatesData.getIndexIterator();
int last_msecs = Integer.MIN_VALUE;
int nscans = groups.size();
int maxRadials = volScan.getMaxRadials();
for (int i = 0; i < nscans; i++) {
List scanGroup = (List) groups.get(i);
int nradials = scanGroup.size();
Cinrad2Record first = null;
for (int j = 0; j < nradials; j++) {
Cinrad2Record r = (Cinrad2Record) scanGroup.get(j);
if (first == null) first = r;
timeDataIter.setIntNext(r.data_msecs);
elevDataIter.setFloatNext(r.getElevation());
aziDataIter.setFloatNext(r.getAzimuth());
if (r.data_msecs < last_msecs)
logger.warn("makeCoordinateData time out of order " + r.data_msecs);
last_msecs = r.data_msecs;
}
for (int j = nradials; j < maxRadials; j++) {
timeDataIter.setIntNext(MISSING_INT);
elevDataIter.setFloatNext(MISSING_FLOAT);
aziDataIter.setFloatNext(MISSING_FLOAT);
}
nradialsIter.setIntNext(nradials);
ngatesIter.setIntNext(first.getGateCount(datatype));
}
time.setCachedData(timeData, false);
elev.setCachedData(elevData, false);
azi.setCachedData(aziData, false);
nradialsVar.setCachedData(nradialsData, false);
ngatesVar.setCachedData(ngatesData, false);
}
/**
* Make the station variables from a representative station
*
* @param stations list of stations
* @param dim station dimension
* @return the list of variables
*/
protected List<Variable> makeStationVars(List<GempakStation> stations, Dimension dim) {
int numStations = stations.size();
boolean useSTID = true;
for (GempakStation station : stations) {
if (station.getSTID().equals("")) {
useSTID = false;
break;
}
}
List<Variable> vars = new ArrayList<Variable>();
List<String> stnKeyNames = gemreader.getStationKeyNames();
for (String varName : stnKeyNames) {
Variable v = makeStationVariable(varName, dim);
// use STNM or STID as the name or description
Attribute stIDAttr = new Attribute("standard_name", "station_id");
if (varName.equals(GempakStation.STID) && useSTID) {
v.addAttribute(stIDAttr);
}
if (varName.equals(GempakStation.STNM) && !useSTID) {
v.addAttribute(stIDAttr);
}
vars.add(v);
}
// see if we fill these in completely now
if ((dim != null) && (numStations > 0)) {
for (Variable v : vars) {
Array varArray;
if (v.getDataType().equals(DataType.CHAR)) {
int[] shape = v.getShape();
varArray = new ArrayChar.D2(shape[0], shape[1]);
} else {
varArray = get1DArray(v.getDataType(), numStations);
}
int index = 0;
String varname = v.getFullName();
for (GempakStation stn : stations) {
String test = "";
if (varname.equals(GempakStation.STID)) {
test = stn.getName();
} else if (varname.equals(GempakStation.STNM)) {
((ArrayInt.D1) varArray)
.set(
index,
// (int) (stn.getSTNM() / 10));
(int) (stn.getSTNM()));
} else if (varname.equals(GempakStation.SLAT)) {
((ArrayFloat.D1) varArray).set(index, (float) stn.getLatitude());
} else if (varname.equals(GempakStation.SLON)) {
((ArrayFloat.D1) varArray).set(index, (float) stn.getLongitude());
} else if (varname.equals(GempakStation.SELV)) {
((ArrayFloat.D1) varArray).set(index, (float) stn.getAltitude());
} else if (varname.equals(GempakStation.STAT)) {
test = stn.getSTAT();
} else if (varname.equals(GempakStation.COUN)) {
test = stn.getCOUN();
} else if (varname.equals(GempakStation.STD2)) {
test = stn.getSTD2();
} else if (varname.equals(GempakStation.SPRI)) {
((ArrayInt.D1) varArray).set(index, stn.getSPRI());
} else if (varname.equals(GempakStation.SWFO)) {
test = stn.getSWFO();
} else if (varname.equals(GempakStation.WFO2)) {
test = stn.getWFO2();
}
if (!test.equals("")) {
((ArrayChar.D2) varArray).setString(index, test);
}
index++;
}
v.setCachedData(varArray, false);
}
}
return vars;
}
Write2ncRect(NetcdfFile bufr, String fileOutName, boolean fill)
throws IOException, InvalidRangeException {
NetcdfFileWriteable ncfile = NetcdfFileWriteable.createNew(fileOutName, fill);
if (debug) {
System.out.println("FileWriter write " + bufr.getLocation() + " to " + fileOutName);
}
// global attributes
List<Attribute> glist = bufr.getGlobalAttributes();
for (Attribute att : glist) {
String useName = N3iosp.makeValidNetcdfObjectName(att.getName());
Attribute useAtt;
if (att.isArray()) useAtt = ncfile.addGlobalAttribute(useName, att.getValues());
else if (att.isString()) useAtt = ncfile.addGlobalAttribute(useName, att.getStringValue());
else useAtt = ncfile.addGlobalAttribute(useName, att.getNumericValue());
if (debug) System.out.println("add gatt= " + useAtt);
}
// global dimensions
Dimension recordDim = null;
Map<String, Dimension> dimHash = new HashMap<String, Dimension>();
for (Dimension oldD : bufr.getDimensions()) {
String useName = N3iosp.makeValidNetcdfObjectName(oldD.getName());
boolean isRecord = useName.equals("record");
Dimension newD = ncfile.addDimension(useName, oldD.getLength(), true, false, false);
dimHash.put(newD.getName(), newD);
if (isRecord) recordDim = newD;
if (debug) System.out.println("add dim= " + newD);
}
// Variables
Structure recordStruct = (Structure) bufr.findVariable(BufrIosp.obsRecord);
for (Variable oldVar : recordStruct.getVariables()) {
if (oldVar.getDataType() == DataType.STRUCTURE) continue;
String varName = N3iosp.makeValidNetcdfObjectName(oldVar.getShortName());
DataType newType = oldVar.getDataType();
List<Dimension> newDims = new ArrayList<Dimension>();
newDims.add(recordDim);
for (Dimension dim : oldVar.getDimensions()) {
newDims.add(ncfile.addDimension(oldVar.getShortName() + "_strlen", dim.getLength()));
}
Variable newVar = ncfile.addVariable(varName, newType, newDims);
if (debug) System.out.println("add var= " + newVar);
// attributes
List<Attribute> attList = oldVar.getAttributes();
for (Attribute att : attList) {
String useName = N3iosp.makeValidNetcdfObjectName(att.getName());
if (att.isArray()) ncfile.addVariableAttribute(varName, useName, att.getValues());
else if (att.isString())
ncfile.addVariableAttribute(varName, useName, att.getStringValue());
else ncfile.addVariableAttribute(varName, useName, att.getNumericValue());
}
}
// int max_seq = countSeq(recordStruct);
// Dimension seqD = ncfile.addDimension("level", max_seq);
for (Variable v : recordStruct.getVariables()) {
if (v.getDataType() != DataType.STRUCTURE) continue;
String structName = N3iosp.makeValidNetcdfObjectName(v.getShortName());
int shape[] = v.getShape();
Dimension structDim = ncfile.addDimension(structName, shape[0]);
Structure struct = (Structure) v;
for (Variable seqVar : struct.getVariables()) {
String varName = N3iosp.makeValidNetcdfObjectName(seqVar.getShortName() + "-" + structName);
DataType newType = seqVar.getDataType();
List<Dimension> newDims = new ArrayList<Dimension>();
newDims.add(recordDim);
newDims.add(structDim);
for (Dimension dim : seqVar.getDimensions()) {
newDims.add(ncfile.addDimension(seqVar.getShortName() + "_strlen", dim.getLength()));
}
Variable newVar = ncfile.addVariable(varName, newType, newDims);
if (debug) System.out.println("add var= " + newVar);
// attributes
List<Attribute> attList = seqVar.getAttributes();
for (Attribute att : attList) {
String useName = N3iosp.makeValidNetcdfObjectName(att.getName());
if (att.isArray()) ncfile.addVariableAttribute(varName, useName, att.getValues());
else if (att.isString())
ncfile.addVariableAttribute(varName, useName, att.getStringValue());
else ncfile.addVariableAttribute(varName, useName, att.getNumericValue());
}
}
}
// create the file
ncfile.create();
if (debug) System.out.println("File Out= " + ncfile.toString());
// boolean ok = (Boolean) ncfile.sendIospMessage(NetcdfFile.IOSP_MESSAGE_ADD_RECORD_STRUCTURE);
double total = copyVarData(ncfile, recordStruct);
ncfile.flush();
System.out.println("FileWriter done total bytes = " + total);
ncfile.close();
}