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edu.harvard.hul.ois.jhove.viewer.RepTreeRoot Maven / Gradle / Ivy
/**********************************************************************
* Jhove - JSTOR/Harvard Object Validation Environment
* Copyright 2003-2005 by JSTOR and the President and Fellows of Harvard College
**********************************************************************/
package edu.harvard.hul.ois.jhove.viewer;
import java.text.DateFormat;
import java.util.Arrays;
import java.util.Date;
import java.util.Iterator;
import java.util.List;
import java.util.Map;
import java.util.Set;
import javax.swing.tree.DefaultMutableTreeNode;
import edu.harvard.hul.ois.jhove.AESAudioMetadata;
import edu.harvard.hul.ois.jhove.Checksum;
import edu.harvard.hul.ois.jhove.ErrorMessage;
import edu.harvard.hul.ois.jhove.InfoMessage;
import edu.harvard.hul.ois.jhove.JhoveBase;
import edu.harvard.hul.ois.jhove.Message;
import edu.harvard.hul.ois.jhove.Module;
import edu.harvard.hul.ois.jhove.NisoImageMetadata;
import edu.harvard.hul.ois.jhove.Property;
import edu.harvard.hul.ois.jhove.PropertyArity;
import edu.harvard.hul.ois.jhove.PropertyType;
import edu.harvard.hul.ois.jhove.Rational;
import edu.harvard.hul.ois.jhove.RepInfo;
import edu.harvard.hul.ois.jhove.TextMDMetadata;
/**
* This subclass of DefaultMutableTreeNode simply adds a method for constructing
* the tree. All nodes in the tree except for the root will be plain
* DefaultMutablereeNodes.
*/
public class RepTreeRoot extends DefaultMutableTreeNode {
/**
* Serialisation identifier
*/
private static final long serialVersionUID = -4409152022584715925L;
private RepInfo _info;
private JhoveBase _base;
private boolean _rawOutput;
private DateFormat _dateFmt;
/* Sample rate. */
private double _sampleRate;
/**
* Constructor.
*
* @param info
* The RepInfo object whose contents are to be displayed.
* @param base
* The JHOVE base on which we're operating.
*/
public RepTreeRoot(RepInfo info, JhoveBase base) {
super(info.getUri());
_info = info;
_base = base;
_rawOutput = _base.getShowRawFlag();
// Set the DateFormat for displaying the module date.
_dateFmt = DateFormat.getDateInstance();
// Snarf everything up into the tree.
snarfRepInfo();
}
private static final String TEXT_MD_METADTA = "TextMDMetadata";
private static final String FORMAT = "Format: ";
private static final String VERSION = "Version: ";
private static final String BYTE_ORDER = "ByteOrder: ";
private static final String FRAME_COUNT_30 = "FrameCount: 30";
private static final String TIME_BASE_1000 = "TimeBase: 1000";
private static final String VIDEO_FIELD_FIELD_1 = "VideoField: FIELD_1";
private static final String COUNTING_MODE_NTSC_NON_DROP_FRAME= "CountingMode: NTSC_NON_DROP_FRAME";
private static final String HOURS = "Hours: ";
private static final String MINUTES = "Minutes: ";
private static final String SECONDS = "Seconds: ";
private static final String FRAMES = "Frames: ";
private static final String SAMPLES = "Samples";
private static final String NUMBER_OF_SAMPLES = "NumberOfSamples: ";
private static final String FILM_FRAMING = "FilmFraming";
private static final String FRAMING_NOT_APPLICABLE = "Framing: NOT_APPLICABLE";
private static final String NTSC_FILM_FRAMING_TYPE = "Type: ntscFilmFramingType";
/**
* Constructs a DefaultMutableTreeNode representing a property
*/
private DefaultMutableTreeNode propToNode(Property pProp) {
PropertyArity arity = pProp.getArity();
PropertyType typ = pProp.getType();
Object pValue = pProp.getValue();
if (arity == PropertyArity.SCALAR) {
if (null == typ) {
// Simple types: just use name plus string value.
DefaultMutableTreeNode val = new DefaultMutableTreeNode(
pProp.getName() + ": " + pValue.toString());
return val;
} else {
TextMDMetadata tData;
DefaultMutableTreeNode val;
switch (typ) {
case NISOIMAGEMETADATA:
// NISO Image metadata is a world of its own.
NisoImageMetadata nData = (NisoImageMetadata) pValue;
return nisoToNode(nData);
case AESAUDIOMETADATA:
// AES audio metadata is another world.
AESAudioMetadata aData = (AESAudioMetadata) pValue;
return aesToNode(aData);
case TEXTMDMETADATA:
// textMD metadata is another world.
tData = (TextMDMetadata) pValue;
return textMDToNode(tData);
case PROPERTY:
if (TEXT_MD_METADTA.equals(pProp.getName())) {
tData = (TextMDMetadata) pValue;
return textMDToNode(tData);
}
// A scalar property of type Property -- seems
// pointless, but we handle it.
val = new DefaultMutableTreeNode(pProp.getName());
val.add(propToNode((Property) pValue));
return val;
default:
// Simple types: just use name plus string value.
val = new DefaultMutableTreeNode(pProp.getName() + ": "
+ pValue.toString());
return val;
}
}
}
// Compound properties. The text of the node is the
// property name.
DefaultMutableTreeNode val = new DefaultMutableTreeNode(pProp.getName());
if (null != arity)
switch (arity) {
case ARRAY:
addArrayMembers(val, pProp);
break;
case LIST:
addListMembers(val, pProp);
break;
case MAP:
addMapMembers(val, pProp);
break;
case SET:
addSetMembers(val, pProp);
break;
default:
break;
}
return val;
}
/**
* Find the index of an object in its parent. Understands the Jhove property
* structure.
*/
public int getIndexOfChild(Object parent, Object child) {
Property pProp = (Property) parent;
PropertyArity arity = pProp.getArity();
// For Lists, Maps, and Sets we construct an Iterator.
Iterator iter = null;
if (arity == PropertyArity.SET || arity == PropertyArity.LIST
|| arity == PropertyArity.MAP) {
if (null == arity) {
List list = (List) pProp.getValue();
iter = list.iterator();
} else
switch (arity) {
case SET:
Set set = (Set) pProp.getValue();
iter = set.iterator();
break;
case MAP:
Map map = (Map) pProp.getValue();
iter = map.values().iterator();
break;
default:
List list = (List) pProp.getValue();
iter = list.iterator();
break;
}
for (int i = 0;; i++) {
if (!iter.hasNext()) {
return 0; // Should never happen
} else if (iter.next() == child) {
return i;
}
}
}
// OK, that was the easy one. Now for that damn array arity.
// In the case of non-object types, we can't actually tell which
// position matches the object, so we return 0 and hope it doesn't
// mess things up too much.
PropertyType propType = pProp.getType();
java.util.Date[] dateArray = null;
Property[] propArray = null;
Rational[] rationalArray = null;
Object[] objArray = null;
int n = 0;
if (null == propType) {
return 0; // non-object array type
} else
// if (child instanceof LeafHolder) {
// return ((LeafHolder) child).getPosition ();
// }
// else
switch (propType) {
case DATE:
dateArray = (java.util.Date[]) pProp.getValue();
n = dateArray.length;
break;
case OBJECT:
objArray = (Object[]) pProp.getValue();
n = objArray.length;
break;
case RATIONAL:
rationalArray = (Rational[]) pProp.getValue();
n = rationalArray.length;
break;
case PROPERTY:
propArray = (Property[]) pProp.getValue();
n = propArray.length;
break;
default:
return 0; // non-object array type
}
for (int i = 0; i < n; i++) {
Object elem = null;
switch (propType) {
case DATE:
elem = dateArray[i];
break;
case OBJECT:
elem = objArray[i];
break;
case RATIONAL:
elem = rationalArray[i];
break;
case PROPERTY:
elem = propArray[i];
break;
default:
break;
}
if (elem == child) {
return i;
}
}
return 0; // somehow fell through
}
private void snarfRepInfo() {
// This node has two children, for the module and the RepInfo
Module module = _info.getModule();
if (module != null) {
// Create a subnode for the module, which has three
// leaf children.
DefaultMutableTreeNode moduleNode = new DefaultMutableTreeNode(
"Module");
moduleNode.add(new DefaultMutableTreeNode(module.getName(), false));
moduleNode.add(new DefaultMutableTreeNode("Release: "
+ module.getRelease(), false));
moduleNode.add(new DefaultMutableTreeNode("Date: "
+ _dateFmt.format(module.getDate()), false));
add(moduleNode);
}
DefaultMutableTreeNode infoNode = new DefaultMutableTreeNode("RepInfo");
infoNode.add(new DefaultMutableTreeNode("URI: " + _info.getUri(), false));
Date dt = _info.getCreated();
if (dt != null) {
infoNode.add(new DefaultMutableTreeNode(
"Created: " + dt.toString(), false));
}
dt = _info.getLastModified();
if (dt != null) {
infoNode.add(new DefaultMutableTreeNode("LastModified: "
+ dt.toString(), false));
}
long sz = _info.getSize();
if (sz != -1) {
infoNode.add(new DefaultMutableTreeNode("Size: "
+ Long.toString(sz), false));
}
String s = _info.getFormat();
if (s != null) {
infoNode.add(new DefaultMutableTreeNode(FORMAT + s, false));
}
s = _info.getVersion();
if (s != null) {
infoNode.add(new DefaultMutableTreeNode(VERSION + s, false));
}
String wfStr;
switch (_info.getWellFormed()) {
case RepInfo.TRUE:
wfStr = "Well-Formed";
break;
case RepInfo.FALSE:
wfStr = "Not well-formed";
break;
default:
wfStr = "Unknown";
break;
}
if (_info.getWellFormed() == RepInfo.TRUE) {
switch (_info.getValid()) {
case RepInfo.TRUE:
wfStr += " and valid";
break;
case RepInfo.FALSE:
wfStr += ", but not valid";
break;
// case UNDETERMINED: add nothing
}
}
infoNode.add(new DefaultMutableTreeNode("Status: " + wfStr, false));
// Report modules that said their signatures match
List sigList = _info.getSigMatch();
if (sigList != null && sigList.size() > 0) {
DefaultMutableTreeNode sigNode = new DefaultMutableTreeNode(
"SignatureMatches");
infoNode.add(sigNode);
for (int i = 0; i < sigList.size(); i++) {
DefaultMutableTreeNode sNode = new DefaultMutableTreeNode(
sigList.get(i));
sigNode.add(sNode);
}
}
// Compile a list of messages and offsets into a subtree
List messageList = _info.getMessage();
if (messageList != null && messageList.size() > 0) {
DefaultMutableTreeNode msgNode = new DefaultMutableTreeNode(
"Messages");
infoNode.add(msgNode);
int i;
for (i = 0; i < messageList.size(); i++) {
Message msg = messageList.get(i);
String prefix;
if (msg instanceof InfoMessage) {
prefix = "InfoMessage: ";
} else if (msg instanceof ErrorMessage) {
prefix = "ErrorMessage: ";
} else {
prefix = "Message: ";
}
DefaultMutableTreeNode mNode = new DefaultMutableTreeNode(
prefix + msg.getMessage());
if (msg.getId() != null && !msg.getId().isEmpty()) {
mNode.add(new DefaultMutableTreeNode("ID: "
+ msg.getId()));
}
String subMessage = msg.getSubMessage();
if (subMessage != null) {
mNode.add(new DefaultMutableTreeNode("SubMessage: "
+ subMessage));
}
long offset = -1;
if (msg instanceof ErrorMessage) {
offset = ((ErrorMessage) msg).getOffset();
}
//
// If the offset is positive, we give the message node
// a child with the offset value.
if (offset >= 0) {
mNode.add(new DefaultMutableTreeNode("Offset: "
+ Long.toString(offset)));
}
msgNode.add(mNode);
}
}
s = _info.getMimeType();
if (s != null) {
infoNode.add(new DefaultMutableTreeNode("MimeType: " + s, false));
}
// Compile a list of profile strings into a string list
List profileList = _info.getProfile();
if (profileList != null && profileList.size() > 0) {
DefaultMutableTreeNode profNode = new DefaultMutableTreeNode(
"Profiles");
infoNode.add(profNode);
int i;
for (i = 0; i < profileList.size(); i++) {
profNode.add(new DefaultMutableTreeNode(profileList.get(i),
false));
}
}
// Here we come to the property map. We have to walk
// through all the properties recursively, turning
// each into a leaf or subtree.
Map map = _info.getProperty();
if (map != null) {
Iterator iter = map.keySet().iterator();
while (iter.hasNext()) {
String key = iter.next();
Property property = _info.getProperty(key);
infoNode.add(propToNode(property));
}
}
List cksumList = _info.getChecksum();
if (cksumList != null && !cksumList.isEmpty()) {
DefaultMutableTreeNode ckNode = new DefaultMutableTreeNode(
"Checksums");
infoNode.add(ckNode);
// List cPropList = new LinkedList ();
for (Checksum cksum : cksumList) {
DefaultMutableTreeNode csNode = new DefaultMutableTreeNode(
"Checksum");
ckNode.add(csNode);
csNode.add(new DefaultMutableTreeNode("Type:"
+ cksum.getType().toString(), false));
csNode.add(new DefaultMutableTreeNode("Checksum: "
+ cksum.getValue(), false));
}
}
s = _info.getNote();
if (s != null) {
infoNode.add(new DefaultMutableTreeNode("Note: " + s, false));
}
add(infoNode);
}
/*
* Add the members of an array property to a node. The property must be of
* arity ARRAY.
*/
private void addArrayMembers(DefaultMutableTreeNode node, Property p) {
Object pVal = p.getValue();
PropertyType typ = p.getType();
if (null != typ)
switch (typ) {
case INTEGER: {
if (pVal instanceof int[]) {
Integer[] vals = Arrays.stream((int[])pVal) // IntStream
.boxed() // Stream
.toArray(Integer[]::new);
addToNode(node, vals);
} else {
addToNode(node, (Integer[]) pVal);
}
break;
}
case LONG: {
if (pVal instanceof long[]) {
Long[] vals = Arrays.stream((long[])pVal) // IntStream
.boxed() // Stream
.toArray(Long[]::new);
addToNode(node, vals);
} else {
addToNode(node, (Long[]) pVal);
}
break;
}
case BOOLEAN: {
addToNode(node, (Boolean[]) pVal);
break;
}
case CHARACTER: {
addToNode(node, (Character[]) pVal);
break;
}
case DOUBLE: {
if (pVal instanceof double[]) {
Double[] vals = Arrays.stream((double[])pVal) // IntStream
.boxed() // Stream
.toArray(Double[]::new);
addToNode(node, vals);
} else {
addToNode(node, (Double[]) pVal);
}
break;
}
case FLOAT: {
addToNode(node, (Float[]) pVal);
break;
}
case SHORT: {
addToNode(node, (Short[]) pVal);
break;
}
case BYTE: {
addToNode(node, (Byte[]) pVal);
break;
}
case STRING: {
addToNode(node, (String[]) pVal);
break;
}
case RATIONAL: {
addToNode(node, (Rational[]) pVal);
break;
}
case PROPERTY: {
addToNode(node, (Property[]) pVal);
break;
}
case NISOIMAGEMETADATA: {
addToNode(node, (NisoImageMetadata[]) pVal);
break;
}
case OBJECT: {
addToNode(node, (Object[]) pVal);
break;
}
default:
break;
}
}
/*
* Add the members of a list property to a node. The property must be of
* arity LIST.
*/
private void addListMembers(DefaultMutableTreeNode node, Property p) {
List l = (List) p.getValue();
PropertyType ptyp = p.getType();
boolean canHaveChildren = Boolean.FALSE;
l.forEach(item -> node.add(getDefaultMutableTreeNode(ptyp, item,
canHaveChildren)));
}
/*
* Add the members of a set property to a node. The property must be of
* arity SET.
*/
private void addSetMembers(DefaultMutableTreeNode node, Property p) {
Set s = (Set) p.getValue();
PropertyType ptyp = p.getType();
boolean canHaveChildren = Boolean.FALSE;
Iterator iter = s.iterator();
while (iter.hasNext()) {
Object item = iter.next();
node.add(getDefaultMutableTreeNode(ptyp, item, canHaveChildren));
}
}
/*
* Add the members of a map property to a node. The property must be of
* arity MAP.
*/
private void addMapMembers(DefaultMutableTreeNode node, Property p) {
Map m = (Map) p.getValue();
PropertyType ptyp = p.getType();
Boolean canHaveChildren = Boolean.TRUE;
// Iterator iter = m.values ().iterator ();
Iterator iter = m.keySet().iterator();
while (iter.hasNext()) {
DefaultMutableTreeNode itemNode;
String key = (String) iter.next();
Object item = m.get(key);
itemNode = getDefaultMutableTreeNode(ptyp, item, canHaveChildren);
node.add(itemNode);
// Add a subnode for the key
itemNode.setAllowsChildren(true);
itemNode.add(new DefaultMutableTreeNode("Key: " + key, false));
}
}
/* Function for turning the AES metadata into a subtree. */
private DefaultMutableTreeNode aesToNode(AESAudioMetadata aes) {
_sampleRate = aes.getSampleRate();
DefaultMutableTreeNode val = new DefaultMutableTreeNode(
"AESAudioMetadata", true);
String s = aes.getAnalogDigitalFlag();
if (s != null) {
val.add(new DefaultMutableTreeNode("AnalogDigitalFlag: " + s, false));
// The "false" argument signifies this will have no subnodes
}
s = aes.getSchemaVersion();
if (s != null) {
val.add(new DefaultMutableTreeNode("SchemaVersion: " + s, false));
}
s = aes.getFormat();
if (s != null) {
DefaultMutableTreeNode fmt = new DefaultMutableTreeNode(FORMAT
+ s, true);
val.add(fmt);
String v = aes.getSpecificationVersion();
if (v != null) {
fmt.add(new DefaultMutableTreeNode(
"SpecificationVersion: " + v, false));
}
}
s = aes.getAppSpecificData();
if (s != null) {
val.add(new DefaultMutableTreeNode("AppSpecificData: " + s, false));
}
s = aes.getAudioDataEncoding();
if (s != null) {
val.add(new DefaultMutableTreeNode("AudioDataEncoding: " + s, false));
}
int in = aes.getByteOrder();
if (in != AESAudioMetadata.NULL) {
val.add(new DefaultMutableTreeNode(BYTE_ORDER
+ (in == AESAudioMetadata.BIG_ENDIAN ? "BIG_ENDIAN"
: "LITTLE_ENDIAN")));
}
long lin = aes.getFirstSampleOffset();
if (lin != AESAudioMetadata.NULL) {
val.add(new DefaultMutableTreeNode("FirstSampleOffset: "
+ Long.toString(lin)));
}
String[] use = aes.getUse();
if (use != null) {
DefaultMutableTreeNode u = new DefaultMutableTreeNode("Use", true);
val.add(u);
u.add(new DefaultMutableTreeNode("UseType: " + use[0], false));
u.add(new DefaultMutableTreeNode("OtherType: " + use[1], false));
}
s = aes.getPrimaryIdentifier();
if (s != null) {
String t = aes.getPrimaryIdentifierType();
DefaultMutableTreeNode pi = new DefaultMutableTreeNode(
"PrimaryIdentifier: " + s, true);
val.add(pi);
if (t != null) {
pi.add(new DefaultMutableTreeNode("IdentifierType: " + t));
}
}
// Add the face information, which is mostly filler.
// In the general case, it can contain multiple Faces;
// this isn't supported yet.
List facelist = aes.getFaceList();
if (!facelist.isEmpty()) {
AESAudioMetadata.Face f = facelist.get(0);
DefaultMutableTreeNode face = new DefaultMutableTreeNode("Face",
true);
DefaultMutableTreeNode timeline = new DefaultMutableTreeNode(
"TimeLine", true);
AESAudioMetadata.TimeDesc startTime = f.getStartTime();
if (startTime != null) {
addAESTimeRange(timeline, startTime, f.getDuration());
}
face.add(timeline);
// For the present, assume just one face region
AESAudioMetadata.FaceRegion facergn = f.getFaceRegion(0);
DefaultMutableTreeNode region = new DefaultMutableTreeNode(
"Region", true);
timeline = new DefaultMutableTreeNode("TimeRange", true);
addAESTimeRange(timeline, facergn.getStartTime(),
facergn.getDuration());
region.add(timeline);
int nchan = aes.getNumChannels();
if (nchan != AESAudioMetadata.NULL) {
String[] locs = aes.getMapLocations();
region.add(new DefaultMutableTreeNode("NumChannels: "
+ Integer.toString(nchan), false));
for (String loc : locs) {
// write a stream element for each channel
DefaultMutableTreeNode stream = new DefaultMutableTreeNode(
"Stream", true);
region.add(stream);
stream.add(new DefaultMutableTreeNode("ChannelAssignment: "
+ loc, false));
}
}
face.add(region);
val.add(face);
}
// In the general case, a FormatList can contain multiple
// FormatRegions. This doesn't happen with any of the current
// modules; if it's needed in the future, simply set up an
// iteration loop on formatList.
List flist = aes.getFormatList();
if (!flist.isEmpty()) {
AESAudioMetadata.FormatRegion rgn = flist.get(0);
int bitDepth = rgn.getBitDepth();
double sampleRate = rgn.getSampleRate();
int wordSize = rgn.getWordSize();
String[] bitRed = rgn.getBitrateReduction();
// Build a FormatRegion subtree if at least one piece of data
// that goes into it is present.
if (bitDepth != AESAudioMetadata.NULL
|| sampleRate != AESAudioMetadata.NILL
|| wordSize != AESAudioMetadata.NULL) {
DefaultMutableTreeNode formatList = new DefaultMutableTreeNode(
"FormatList", true);
DefaultMutableTreeNode formatRegion = new DefaultMutableTreeNode(
"FormatRegion", true);
if (bitDepth != AESAudioMetadata.NULL) {
formatRegion.add(new DefaultMutableTreeNode("BitDepth: "
+ Integer.toString(bitDepth), false));
}
if (sampleRate != AESAudioMetadata.NILL) {
formatRegion.add(new DefaultMutableTreeNode("SampleRate: "
+ Double.toString(sampleRate), false));
}
if (wordSize != AESAudioMetadata.NULL) {
formatRegion.add(new DefaultMutableTreeNode("WordSize: "
+ Integer.toString(bitDepth), false));
}
if (bitRed != null) {
DefaultMutableTreeNode br = new DefaultMutableTreeNode(
"BitrateReduction", true);
br.add(new DefaultMutableTreeNode(
"codecName: " + bitRed[0], false));
br.add(new DefaultMutableTreeNode("codecNameVersion: "
+ bitRed[1], false));
br.add(new DefaultMutableTreeNode(
"codecCreatorApplication: " + bitRed[2], false));
br.add(new DefaultMutableTreeNode(
"codecCreatorApplicationVersion: " + bitRed[3],
false));
br.add(new DefaultMutableTreeNode("codecQuality: "
+ bitRed[4], false));
br.add(new DefaultMutableTreeNode("dataRate: " + bitRed[5],
false));
br.add(new DefaultMutableTreeNode("dataRateMode: "
+ bitRed[6], false));
formatRegion.add(br);
}
formatList.add(formatRegion);
val.add(formatList);
}
}
return val;
}
private void addAESTimeRange(DefaultMutableTreeNode parent,
AESAudioMetadata.TimeDesc start, AESAudioMetadata.TimeDesc duration) {
// Put the start time in
DefaultMutableTreeNode node = new DefaultMutableTreeNode("Start", true);
// Put in boilerplate to match the AES schema
node.add(new DefaultMutableTreeNode(FRAME_COUNT_30, false));
node.add(new DefaultMutableTreeNode(TIME_BASE_1000));
node.add(new DefaultMutableTreeNode(VIDEO_FIELD_FIELD_1));
node.add(new DefaultMutableTreeNode(
COUNTING_MODE_NTSC_NON_DROP_FRAME, false));
node.add(new DefaultMutableTreeNode(HOURS + start.getHours(), false));
node.add(new DefaultMutableTreeNode(MINUTES + start.getMinutes(),
false));
node.add(new DefaultMutableTreeNode(SECONDS + start.getSeconds(),
false));
node.add(new DefaultMutableTreeNode(FRAMES + start.getFrames(),
false));
// Do samples a bit more elaborately than is really necessary,
// to maintain parallelism with the xml schema.
DefaultMutableTreeNode snode = new DefaultMutableTreeNode(SAMPLES,
true);
double sr = start.getSampleRate();
if (sr == 1.0) {
sr = _sampleRate;
}
snode.add(new DefaultMutableTreeNode("SampleRate: S"
+ Integer.toString((int) sr), false));
snode.add(new DefaultMutableTreeNode(NUMBER_OF_SAMPLES
+ start.getSamples(), false));
node.add(snode);
snode = new DefaultMutableTreeNode(FILM_FRAMING, true);
snode.add(new DefaultMutableTreeNode(FRAMING_NOT_APPLICABLE, false));
snode.add(new DefaultMutableTreeNode(NTSC_FILM_FRAMING_TYPE, false));
node.add(snode);
parent.add(node);
// Duration is optional.
if (duration != null) {
node = new DefaultMutableTreeNode("Duration", true);
// Put in boilerplate to match the AES schema
node.add(new DefaultMutableTreeNode(FRAME_COUNT_30, false));
node.add(new DefaultMutableTreeNode(TIME_BASE_1000));
node.add(new DefaultMutableTreeNode(VIDEO_FIELD_FIELD_1));
node.add(new DefaultMutableTreeNode(
COUNTING_MODE_NTSC_NON_DROP_FRAME, false));
node.add(new DefaultMutableTreeNode(
HOURS + duration.getHours(), false));
node.add(new DefaultMutableTreeNode(MINUTES
+ duration.getMinutes(), false));
node.add(new DefaultMutableTreeNode(SECONDS
+ duration.getSeconds(), false));
node.add(new DefaultMutableTreeNode(FRAMES
+ duration.getFrames(), false));
// Do samples a bit more elaborately than is really necessary,
// to maintain parallelism with the xml schema.
snode = new DefaultMutableTreeNode(SAMPLES, true);
sr = duration.getSampleRate();
if (sr == 1.0) {
sr = _sampleRate;
}
snode.add(new DefaultMutableTreeNode("SamplesRate S"
+ Integer.toString((int) sr), false));
snode.add(new DefaultMutableTreeNode(NUMBER_OF_SAMPLES
+ duration.getSamples(), false));
node.add(snode);
snode = new DefaultMutableTreeNode(FILM_FRAMING, true);
snode.add(new DefaultMutableTreeNode(FRAMING_NOT_APPLICABLE,
false));
snode.add(new DefaultMutableTreeNode(NTSC_FILM_FRAMING_TYPE,
false));
node.add(snode);
parent.add(node);
}
}
/* Function for turning the textMD metadata into a subtree. */
private DefaultMutableTreeNode textMDToNode(TextMDMetadata textMD) {
DefaultMutableTreeNode val = new DefaultMutableTreeNode(
TEXT_MD_METADTA, true);
DefaultMutableTreeNode u = new DefaultMutableTreeNode("Character_info",
true);
val.add(u);
String s = textMD.getCharset();
if (s != null) {
u.add(new DefaultMutableTreeNode("Charset: " + s, false));
}
s = textMD.getByte_orderString();
if (s != null) {
u.add(new DefaultMutableTreeNode("Byte_order: " + s, false));
}
s = textMD.getByte_size();
if (s != null) {
u.add(new DefaultMutableTreeNode("Byte_size: " + s, false));
}
s = textMD.getCharacter_size();
if (s != null) {
u.add(new DefaultMutableTreeNode("Character_size: " + s, false));
}
s = textMD.getLinebreakString();
if (s != null) {
u.add(new DefaultMutableTreeNode("Linebreak: " + s, false));
}
s = textMD.getLanguage();
if (s != null) {
val.add(new DefaultMutableTreeNode("Language: " + s, false));
}
s = textMD.getMarkup_basis();
if (s != null) {
DefaultMutableTreeNode basis = new DefaultMutableTreeNode(
"Markup_basis: " + s, true);
val.add(basis);
s = textMD.getMarkup_basis_version();
if (s != null) {
basis.add(new DefaultMutableTreeNode(VERSION + s, false));
}
}
s = textMD.getMarkup_language();
if (s != null) {
DefaultMutableTreeNode language = new DefaultMutableTreeNode(
"Markup_language: " + s, true);
val.add(language);
s = textMD.getMarkup_language_version();
if (s != null) {
language.add(new DefaultMutableTreeNode(VERSION + s, false));
}
}
return val;
}
/* Function for turning the Niso metadata into a subtree. */
private DefaultMutableTreeNode nisoToNode(NisoImageMetadata niso) {
DefaultMutableTreeNode val = new DefaultMutableTreeNode(
"NisoImageMetadata", true);
String s = niso.getMimeType();
if (s != null) {
val.add(new DefaultMutableTreeNode("MIMEType: " + s, false));
}
s = niso.getByteOrder();
if (s != null) {
val.add(new DefaultMutableTreeNode(BYTE_ORDER + s, false));
}
int n = niso.getCompressionScheme();
if (n != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("CompressionScheme: "
+ integerRepresentation(n,
NisoImageMetadata.COMPRESSION_SCHEME,
NisoImageMetadata.COMPRESSION_SCHEME_INDEX), false));
}
if ((n = niso.getCompressionLevel()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("CompressionLevel: "
+ Integer.toString(n), false));
}
if ((n = niso.getColorSpace()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("ColorSpace: "
+ integerRepresentation(n, NisoImageMetadata.COLORSPACE,
NisoImageMetadata.COLORSPACE_INDEX), false));
}
if ((s = niso.getProfileName()) != null) {
val.add(new DefaultMutableTreeNode("ProfileName: " + s, false));
}
if ((s = niso.getProfileURL()) != null) {
val.add(new DefaultMutableTreeNode("ProfileURL: " + s, false));
}
int[] iarray = niso.getYCbCrSubSampling();
if (iarray != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"YCbCrSubSampling"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((n = niso.getYCbCrPositioning()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("YCbCrPositioning: "
+ integerRepresentation(n,
NisoImageMetadata.YCBCR_POSITIONING), false));
}
Rational[] rarray = niso.getYCbCrCoefficients();
if (rarray != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"YCbCrCoefficients", true));
val.add(nod);
for (int i = 0; i < rarray.length; i++) {
nod.add(new DefaultMutableTreeNode(rarray[i].toString(), false));
}
}
rarray = niso.getReferenceBlackWhite();
if (rarray != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ReferenceBlackWhite", true));
val.add(nod);
for (int i = 0; i < rarray.length; i++) {
nod.add(new DefaultMutableTreeNode(rarray[i].toString(), false));
}
}
if ((n = niso.getSegmentType()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("YSegmentType: "
+ integerRepresentation(n, NisoImageMetadata.SEGMENT_TYPE),
false));
}
long[] larray = niso.getStripOffsets();
if (larray != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"StripOffsets", true));
val.add(nod);
for (int i = 0; i < larray.length; i++) {
nod.add(new DefaultMutableTreeNode(Long.toString(larray[i]),
false));
}
}
long ln = niso.getRowsPerStrip();
if (ln != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("RowsPerStrip: "
+ Long.toString(ln), false));
}
if ((larray = niso.getStripByteCounts()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"StripByteCounts", true));
val.add(nod);
for (int i = 0; i < larray.length; i++) {
nod.add(new DefaultMutableTreeNode(Long.toString(larray[i]),
false));
}
}
if ((ln = niso.getTileWidth()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("TileWidth: "
+ Long.toString(ln)));
}
if ((ln = niso.getTileLength()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("TileLength: "
+ Long.toString(ln)));
}
if ((larray = niso.getTileOffsets()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"TileOffsets", true));
val.add(nod);
for (int i = 0; i < larray.length; i++) {
nod.add(new DefaultMutableTreeNode(Long.toString(larray[i]),
false));
}
}
if ((larray = niso.getTileByteCounts()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"TileByteCounts", true));
val.add(nod);
for (int i = 0; i < larray.length; i++) {
nod.add(new DefaultMutableTreeNode(Long.toString(larray[i]),
false));
}
}
if ((n = niso.getPlanarConfiguration()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("PlanarConfiguration: "
+ integerRepresentation(n,
NisoImageMetadata.PLANAR_CONFIGURATION), false));
}
if ((s = niso.getImageIdentifier()) != null) {
val.add(new DefaultMutableTreeNode("ImageIdentifier: " + s, false));
}
if ((s = niso.getImageIdentifierLocation()) != null) {
val.add(new DefaultMutableTreeNode("ImageIdentifierLocation: " + s,
false));
}
if ((ln = niso.getFileSize()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode(
"FileSize: " + Long.toString(ln), false));
}
if ((n = niso.getChecksumMethod()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("ChecksumMethod: "
+ integerRepresentation(n,
NisoImageMetadata.CHECKSUM_METHOD), false));
}
if ((s = niso.getChecksumValue()) != null) {
val.add(new DefaultMutableTreeNode("ChecksumValue: " + s, false));
}
if ((n = niso.getOrientation()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("Orientation: "
+ integerRepresentation(n, NisoImageMetadata.ORIENTATION),
false));
}
if ((n = niso.getDisplayOrientation()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("DisplayOrientation: "
+ integerRepresentation(n,
NisoImageMetadata.DISPLAY_ORIENTATION), false));
}
if ((ln = niso.getXTargetedDisplayAR()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("XTargetedDisplayAR: "
+ Long.toString(ln), false));
}
if ((ln = niso.getYTargetedDisplayAR()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("YTargetedDisplayAR: "
+ Long.toString(ln), false));
}
if ((s = niso.getPreferredPresentation()) != null) {
val.add(new DefaultMutableTreeNode("PreferredPresentation: " + s,
false));
}
if ((s = niso.getSourceType()) != null) {
val.add(new DefaultMutableTreeNode("SourceType: " + s, false));
}
if ((s = niso.getImageProducer()) != null) {
val.add(new DefaultMutableTreeNode("ImageProducer: " + s, false));
}
if ((s = niso.getHostComputer()) != null) {
val.add(new DefaultMutableTreeNode("HostComputer: " + s, false));
}
if ((s = niso.getOS()) != null) {
val.add(new DefaultMutableTreeNode("OperatingSystem: " + s, false));
}
if ((s = niso.getOSVersion()) != null) {
val.add(new DefaultMutableTreeNode("OSVersion: " + s, false));
}
if ((s = niso.getDeviceSource()) != null) {
val.add(new DefaultMutableTreeNode("DeviceSource: " + s, false));
}
if ((s = niso.getScannerManufacturer()) != null) {
val.add(new DefaultMutableTreeNode("ScannerManufacturer: " + s,
false));
}
if ((s = niso.getScannerModelName()) != null) {
val.add(new DefaultMutableTreeNode("ScannerModelName: " + s, false));
}
if ((s = niso.getScannerModelNumber()) != null) {
val.add(new DefaultMutableTreeNode("ScannerModelNumber: " + s,
false));
}
if ((s = niso.getScannerModelSerialNo()) != null) {
val.add(new DefaultMutableTreeNode("ScannerModelSerialNo: " + s,
false));
}
if ((s = niso.getScanningSoftware()) != null) {
val.add(new DefaultMutableTreeNode("ScanningSoftware: " + s, false));
}
if ((s = niso.getScanningSoftwareVersionNo()) != null) {
val.add(new DefaultMutableTreeNode("ScanningSoftwareVersionNo: "
+ s, false));
}
double d = niso.getPixelSize();
if (d != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("PixelSize: "
+ Double.toString(d), false));
}
if ((d = niso.getXPhysScanResolution()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("XPhysScanResolution: "
+ Double.toString(d), false));
}
if ((d = niso.getYPhysScanResolution()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("YPhysScanResolution: "
+ Double.toString(d), false));
}
if ((s = niso.getDigitalCameraManufacturer()) != null) {
val.add(new DefaultMutableTreeNode("DigitalCameraManufacturer: "
+ s, false));
}
if ((s = niso.getDigitalCameraModelName()) != null) {
val.add(new DefaultMutableTreeNode("DigitalCameraModelName: " + s,
false));
}
if ((s = niso.getDigitalCameraModelNumber()) != null) {
val.add(new DefaultMutableTreeNode(
"DigitalCameraModelNumber: " + s, false));
}
if ((s = niso.getDigitalCameraModelSerialNo()) != null) {
val.add(new DefaultMutableTreeNode("DigitalCameraModelSerialNo: "
+ s, false));
}
if ((d = niso.getFNumber()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode(
"FNumber: " + Double.toString(d), false));
}
if ((d = niso.getExposureTime()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("ExposureTime: "
+ Double.toString(d), false));
}
if ((n = niso.getExposureProgram()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("ExposureProgram: "
+ Integer.toString(n), false));
}
if ((s = niso.getExifVersion()) != null) {
val.add(new DefaultMutableTreeNode("ExifVersion: " + s, false));
}
Rational r;
if ((r = niso.getBrightness()) != null) {
val.add(new DefaultMutableTreeNode("Brightness: " + r.toString(),
false));
}
if ((r = niso.getExposureBias()) != null) {
val.add(new DefaultMutableTreeNode("ExposureBias: " + r.toString(),
false));
}
double[] darray = niso.getSubjectDistance();
if (darray != null) {
DefaultMutableTreeNode nod = new DefaultMutableTreeNode(
"SubjectDistance", true);
val.add(nod);
for (int i = 0; i < darray.length; i++) {
nod.add(new DefaultMutableTreeNode(Double.toString(darray[i]),
false));
}
}
if ((n = niso.getMeteringMode()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("MeteringMode: "
+ Integer.toString(n), false));
}
if ((n = niso.getSceneIlluminant()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SceneIlluminant: "
+ Integer.toString(n), false));
}
if ((d = niso.getColorTemp()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("ColorTemp: "
+ Double.toString(d), false));
}
if ((d = niso.getFocalLength()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("FocalLength: "
+ Double.toString(d), false));
}
if ((n = niso.getFlash()) != NisoImageMetadata.NULL) {
// First bit (0 = Flash did not fire, 1 = Flash fired)
val.add(new DefaultMutableTreeNode("Flash: "
+ integerRepresentation(n & 1, NisoImageMetadata.FLASH_20),
false));
}
if ((r = niso.getFlashEnergy()) != null) {
val.add(new DefaultMutableTreeNode("FlashEnergy: " + r.toString(),
false));
}
if ((n = niso.getFlashReturn()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("FlashReturn: "
+ integerRepresentation(n, NisoImageMetadata.FLASH_RETURN),
false));
}
if ((n = niso.getBackLight()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("BackLight: "
+ integerRepresentation(n, NisoImageMetadata.BACKLIGHT),
false));
}
if ((d = niso.getExposureIndex()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("ExposureIndex: "
+ Double.toString(d), false));
}
if ((n = niso.getAutoFocus()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("AutoFocus: "
+ Integer.toString(n), false));
// NisoImageMetadata.AUTOFOCUS
}
if ((d = niso.getXPrintAspectRatio()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("XPrintAspectRatio: "
+ Double.toString(d), false));
}
if ((d = niso.getYPrintAspectRatio()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("YPrintAspectRatio: "
+ Double.toString(d), false));
}
if ((n = niso.getSensor()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("Sensor: "
+ integerRepresentation(n, NisoImageMetadata.SENSOR), false));
}
if ((s = niso.getDateTimeCreated()) != null) {
val.add(new DefaultMutableTreeNode("DateTimeCreated: " + s, false));
}
if ((s = niso.getMethodology()) != null) {
val.add(new DefaultMutableTreeNode("Methodology: " + s, false));
}
if ((n = niso.getSamplingFrequencyPlane()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SamplingFrequencyPlane: "
+ integerRepresentation(n,
NisoImageMetadata.SAMPLING_FREQUENCY_PLANE), false));
}
if ((n = niso.getSamplingFrequencyUnit()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SamplingFrequencyUnit: "
+ integerRepresentation(n,
NisoImageMetadata.SAMPLING_FREQUENCY_UNIT), false));
}
Rational rat = niso.getXSamplingFrequency();
if (rat != null) {
val.add(new DefaultMutableTreeNode("XSamplingFrequency: "
+ rat.toString(), false));
}
rat = niso.getYSamplingFrequency();
if (rat != null) {
val.add(new DefaultMutableTreeNode("YSamplingFrequency: "
+ rat.toString(), false));
}
if ((ln = niso.getImageWidth()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("ImageWidth: "
+ Long.toString(ln), false));
}
if ((ln = niso.getImageLength()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("ImageLength: "
+ Long.toString(ln), false));
}
if ((d = niso.getSourceXDimension()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("SourceXDimension: "
+ Double.toString(d), false));
}
if ((n = niso.getSourceXDimensionUnit()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SourceXDimensionUnit: "
+ integerRepresentation(n,
NisoImageMetadata.SOURCE_DIMENSION_UNIT), false));
}
if ((d = niso.getSourceYDimension()) != NisoImageMetadata.NILL) {
val.add(new DefaultMutableTreeNode("SourceYDimension: "
+ Double.toString(d), false));
}
if ((n = niso.getSourceYDimensionUnit()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SourceYDimensionUnit: "
+ integerRepresentation(n,
NisoImageMetadata.SOURCE_DIMENSION_UNIT), false));
}
if ((iarray = niso.getBitsPerSample()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"BitsPerSample"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((n = niso.getSamplesPerPixel()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("SamplesPerPixel: "
+ Integer.toString(n), false));
}
if ((iarray = niso.getExtraSamples()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ExtraSamples"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(integerRepresentation(
iarray[i], NisoImageMetadata.EXTRA_SAMPLES), false));
}
}
if ((s = niso.getColormapReference()) != null) {
val.add(new DefaultMutableTreeNode("ColormapReference: " + s));
}
if ((iarray = niso.getColormapBitCodeValue()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ColormapBitCodeValue"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((iarray = niso.getColormapRedValue()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ColormapRedValue"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((iarray = niso.getColormapGreenValue()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ColormapGreenValue"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((iarray = niso.getColormapBlueValue()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"ColormapBlueValue"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((iarray = niso.getGrayResponseCurve()) != null) {
DefaultMutableTreeNode nod = (new DefaultMutableTreeNode(
"GrayResponseCurve"));
val.add(nod);
for (int i = 0; i < iarray.length; i++) {
nod.add(new DefaultMutableTreeNode(Integer.toString(iarray[i]),
false));
}
}
if ((n = niso.getGrayResponseUnit()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("GrayResponseUnit: "
+ Integer.toString(n), false));
}
r = niso.getWhitePointXValue();
if (r != null) {
val.add(new DefaultMutableTreeNode("WhitePointXValue: "
+ r.toString(), false));
}
if ((r = niso.getWhitePointYValue()) != null) {
val.add(new DefaultMutableTreeNode("WhitePointYValue: "
+ r.toString(), false));
}
if ((r = niso.getPrimaryChromaticitiesRedX()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesRedX: "
+ r.toString(), false));
}
if ((r = niso.getPrimaryChromaticitiesRedY()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesRedY: "
+ r.toString(), false));
}
if ((r = niso.getPrimaryChromaticitiesGreenX()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesGreenX: "
+ r.toString(), false));
}
if ((r = niso.getPrimaryChromaticitiesGreenY()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesGreenY: "
+ r.toString(), false));
}
if ((r = niso.getPrimaryChromaticitiesBlueX()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesBlueX: "
+ r.toString()));
}
if ((r = niso.getPrimaryChromaticitiesBlueY()) != null) {
val.add(new DefaultMutableTreeNode("PrimaryChromaticitiesBlueY: "
+ r.toString()));
}
if ((n = niso.getTargetType()) != NisoImageMetadata.NULL) {
val.add(new DefaultMutableTreeNode("TargetType: "
+ integerRepresentation(n, NisoImageMetadata.TARGET_TYPE),
false));
}
if ((s = niso.getTargetIDManufacturer()) != null) {
val.add(new DefaultMutableTreeNode("TargetIDManufacturer: " + s,
false));
}
if ((s = niso.getTargetIDName()) != null) {
val.add(new DefaultMutableTreeNode("TargetIDName: " + s, false));
}
if ((s = niso.getTargetIDNo()) != null) {
val.add(new DefaultMutableTreeNode("TargetIDNo: " + s, false));
}
if ((s = niso.getTargetIDMedia()) != null) {
val.add(new DefaultMutableTreeNode("TargetIDMedia: " + s, false));
}
if ((s = niso.getImageData()) != null) {
val.add(new DefaultMutableTreeNode("ImageData: " + s, false));
}
if ((s = niso.getPerformanceData()) != null) {
val.add(new DefaultMutableTreeNode("PerformanceData: " + s, false));
}
if ((s = niso.getProfiles()) != null) {
val.add(new DefaultMutableTreeNode("Profiles: " + s, false));
}
if ((s = niso.getDateTimeProcessed()) != null) {
val.add(new DefaultMutableTreeNode("DateTimeProcessed: " + s, false));
}
if ((s = niso.getSourceData()) != null) {
val.add(new DefaultMutableTreeNode("SourceData: " + s, false));
}
if ((s = niso.getProcessingAgency()) != null) {
val.add(new DefaultMutableTreeNode("ProcessingAgency: " + s, false));
}
if ((s = niso.getProcessingSoftwareName()) != null) {
val.add(new DefaultMutableTreeNode("ProcessingSoftwareName: " + s,
false));
}
if ((s = niso.getProcessingSoftwareVersion()) != null) {
val.add(new DefaultMutableTreeNode("ProcessingSoftwareVersion: "
+ s, false));
}
String[] sarray = niso.getProcessingActions();
if (sarray != null) {
DefaultMutableTreeNode nod = new DefaultMutableTreeNode(
"ProcessingActions", true);
val.add(nod);
for (int i = 1; i < sarray.length; i++) {
nod.add(new DefaultMutableTreeNode(sarray[i], false));
}
}
return val;
}
/*
* Return the string equivalent of an integer if raw output isn't selected,
* or its literal representation if it is.
*/
private String integerRepresentation(int n, String[] labels) {
if (_rawOutput) {
return Integer.toString(n);
}
try {
return labels[n];
} catch (Exception e) {
return Integer.toString(n);
}
}
private String integerRepresentation(int n, String[] labels, int[] index) {
if (_rawOutput) {
return Integer.toString(n);
}
try {
int idx = -1;
for (int i = 0; i < index.length; i++) {
if (n == index[i]) {
idx = i;
break;
}
}
if (idx > -1) {
return labels[idx];
}
} catch (Exception e) {
}
// If we don't get a match, or do get an exception
return Integer.toString(n);
}
/**
* This method returns a member of a property list based on it's
* PropertyType
*
* @param ptyp
* the propertytype
* @param item
* the item of the list
* @param allowsChildren
* @return
*/
private DefaultMutableTreeNode getDefaultMutableTreeNode(PropertyType ptyp,
Object item, boolean allowsChildren) {
DefaultMutableTreeNode itemNode;
if (null == ptyp) {
// Simple objects just need a leaf.
itemNode = (new DefaultMutableTreeNode(item, allowsChildren));
} else
// Object item = iter.next ();
switch (ptyp) {
case PROPERTY:
itemNode = (propToNode((Property) item));
break;
case NISOIMAGEMETADATA:
itemNode = (nisoToNode((NisoImageMetadata) item));
break;
default:
// Simple objects just need a leaf.
itemNode = (new DefaultMutableTreeNode(item, allowsChildren));
break;
}
return itemNode;
}
/**
* Method to add an array to a node
*
* @param
* generic method, can be used for arrays of different types
* @param node
* the node to add the elements of the array
* @param array
* the array to be added to the node
*/
private void addToNode(DefaultMutableTreeNode node, E[] array) {
for (E element : array) {
if (element instanceof Property) {
node.add(propToNode((Property) element));
} else {
node.add(new DefaultMutableTreeNode(element));
}
}
}
}
