use of org.apache.sis.util.Deprecable in project sis by apache.
the class CoordinateOperationRegistry method search.
/**
* Returns operations for conversions or transformations between two coordinate reference systems.
* This method extracts the authority code from the supplied {@code sourceCRS} and {@code targetCRS},
* and submit them to the {@link #registry}. If no operation is found for those codes, then this method
* returns {@code null}.
*
* @param sourceCRS source coordinate reference system.
* @param targetCRS target coordinate reference system.
* @return a coordinate operation from {@code sourceCRS} to {@code targetCRS}, or {@code null}
* if no such operation is explicitly defined in the underlying database.
* @throws IllegalArgumentException if the coordinate systems are not of the same type or axes do not match.
* @throws IncommensurableException if the units are not compatible or a unit conversion is non-linear.
* @throws FactoryException if an error occurred while creating the operation.
*/
private List<CoordinateOperation> search(final CoordinateReferenceSystem sourceCRS, final CoordinateReferenceSystem targetCRS) throws IllegalArgumentException, IncommensurableException, FactoryException {
final List<String> sources = findCode(sourceCRS);
if (sources.isEmpty())
return null;
final List<String> targets = findCode(targetCRS);
if (targets.isEmpty())
return null;
final List<CoordinateOperation> operations = new ArrayList<>();
boolean foundDirectOperations = false;
boolean useDeprecatedOperations = false;
for (final String sourceID : sources) {
for (final String targetID : targets) {
if (sourceID.equals(targetID)) {
/*
* Above check is necessary because this method may be invoked in some situations where the code
* are equal while the CRS are not. Such situation should be illegal, but unfortunately it still
* happen because many software products are not compliant with EPSG definition of axis order.
* In such cases we will need to compute a transform from sourceCRS to targetCRS ignoring the
* source and target codes. The CoordinateOperationFinder class can do that, providing that we
* prevent this CoordinateOperationRegistry to (legitimately) claims that the operation from
* sourceCode to targetCode is the identity transform.
*/
return null;
}
/*
* Some pairs of CRS have a lot of coordinate operations backed by datum shift grids.
* We do not want to load all of them until we found the right coordinate operation.
* The non-public Semaphores.METADATA_ONLY mechanism instructs EPSGDataAccess to
* instantiate DeferredCoordinateOperation instead of full coordinate operations.
*/
final boolean mdOnly = Semaphores.queryAndSet(Semaphores.METADATA_ONLY);
try {
Collection<CoordinateOperation> authoritatives;
try {
authoritatives = registry.createFromCoordinateReferenceSystemCodes(sourceID, targetID);
final boolean inverse = Containers.isNullOrEmpty(authoritatives);
if (inverse) {
/*
* No operation from 'source' to 'target' available. But maybe there is an inverse operation.
* This is typically the case when the user wants to convert from a projected to a geographic CRS.
* The EPSG database usually contains transformation paths for geographic to projected CRS only.
*/
if (foundDirectOperations) {
// Ignore inverse operations if we already have direct ones.
continue;
}
authoritatives = registry.createFromCoordinateReferenceSystemCodes(targetID, sourceID);
if (Containers.isNullOrEmpty(authoritatives)) {
continue;
}
} else if (!foundDirectOperations) {
foundDirectOperations = true;
// Keep only direct operations.
operations.clear();
}
} catch (NoSuchAuthorityCodeException | MissingFactoryResourceException e) {
/*
* sourceCode or targetCode is unknown to the underlying authority factory.
* Ignores the exception and fallback on the generic algorithm provided by
* CoordinateOperationFinder.
*/
log(null, e);
continue;
}
/*
* If we found at least one non-deprecated operation, we will stop the search at
* the first deprecated one (assuming that deprecated operations are sorted last).
* Deprecated operations are kept only if there is no non-deprecated operations.
*/
try {
for (final CoordinateOperation candidate : authoritatives) {
if (candidate != null) {
// Paranoiac check.
if ((candidate instanceof Deprecable) && ((Deprecable) candidate).isDeprecated()) {
if (!useDeprecatedOperations && !operations.isEmpty())
break;
useDeprecatedOperations = true;
} else if (useDeprecatedOperations) {
useDeprecatedOperations = false;
// Replace deprecated operations by non-deprecated ones.
operations.clear();
}
operations.add(candidate);
}
}
} catch (BackingStoreException exception) {
throw exception.unwrapOrRethrow(FactoryException.class);
}
} finally {
if (!mdOnly) {
Semaphores.clear(Semaphores.METADATA_ONLY);
}
}
}
}
/*
* At this point we got the list of coordinate operations. Now, sort them in preference order.
* We will loop over all coordinate operations and select the one having the largest intersection
* with the area of interest. Note that if the user did not specified an area of interest himself,
* then we need to get one from the CRS. This is necessary for preventing the transformation from
* NAD27 to NAD83 in Idaho to select the transform for Alaska (since the later has a larger area).
*/
CoordinateOperationSorter.sort(operations, Extents.getGeographicBoundingBox(areaOfInterest));
final ListIterator<CoordinateOperation> it = operations.listIterator();
while (it.hasNext()) {
/*
* At this point we filtered a CoordinateOperation by looking only at its metadata.
* Code following this point will need the full coordinate operation, including its
* MathTransform. So if we got a deferred operation, we need to resolve it now.
* Conversely, we should not use metadata below this point because the call to
* inverse(CoordinateOperation) is not guaranteed to preserve all metadata.
*/
CoordinateOperation operation = it.next();
try {
if (operation instanceof DeferredCoordinateOperation) {
operation = ((DeferredCoordinateOperation) operation).create();
}
if (operation instanceof SingleOperation && operation.getMathTransform() == null) {
operation = fromDefiningConversion((SingleOperation) operation, foundDirectOperations ? sourceCRS : targetCRS, foundDirectOperations ? targetCRS : sourceCRS);
if (operation == null) {
it.remove();
continue;
}
}
if (!foundDirectOperations) {
operation = inverse(operation);
}
} catch (NoninvertibleTransformException | MissingFactoryResourceException e) {
/*
* If we failed to get the real CoordinateOperation instance, remove it from
* the collection and try again in order to get the next best choices.
*/
log(null, e);
it.remove();
// Try again with the next best case.
continue;
}
/*
* It is possible that the CRS given to this method were not quite right. For example the user
* may have created his CRS from a WKT using a different axis order than the order specified by
* the authority and still (wrongly) call those CRS "EPSG:xxxx". So we check if the source and
* target CRS for the operation we just created are equivalent to the CRS specified by the user.
*
* NOTE: FactoryException may be thrown if we fail to create a transform from the user-provided
* CRS to the authority-provided CRS. That transform should have been only an identity transform,
* or a simple affine transform if the user specified wrong CRS as explained in above paragraph.
* If we fail here, we are likely to fail for all other transforms. So we are better to let the
* FactoryException propagate.
*/
operation = complete(operation, sourceCRS, targetCRS);
if (filter(operation)) {
if (stopAtFirst) {
operations.clear();
operations.add(operation);
break;
}
it.set(operation);
} else {
it.remove();
}
}
return operations;
}
use of org.apache.sis.util.Deprecable in project sis by apache.
the class InverseOperationMethod method create.
/**
* Returns or create the inverse of the given operation method. If the same operation method can be used
* for the inverse operation either with the exact same parameter values or with the sign of some values
* reversed, then the given method is returned as-is. Otherwise a synthetic method is created.
*/
static OperationMethod create(final OperationMethod method) {
if (method instanceof InverseOperationMethod) {
return ((InverseOperationMethod) method).inverse;
}
if (!isInvertible(method)) {
boolean useSameParameters = false;
for (final GeneralParameterDescriptor descriptor : method.getParameters().descriptors()) {
useSameParameters = (descriptor.getRemarks() instanceof SignReversalComment);
if (!useSameParameters)
break;
}
if (!useSameParameters) {
Identifier name = method.getName();
name = new ImmutableIdentifier(null, null, "Inverse of " + name.getCode());
final Map<String, Object> properties = new HashMap<>(6);
properties.put(NAME_KEY, name);
properties.put(FORMULA_KEY, method.getFormula());
properties.put(REMARKS_KEY, method.getRemarks());
if (method instanceof Deprecable) {
properties.put(DEPRECATED_KEY, ((Deprecable) method).isDeprecated());
}
return new InverseOperationMethod(properties, method);
}
}
return method;
}
use of org.apache.sis.util.Deprecable in project sis by apache.
the class FeatureFormat method format.
/**
* Formats the given object to the given stream of buffer.
* The object may be an instance of any of the following types:
*
* <ul>
* <li>{@code Feature}</li>
* <li>{@code FeatureType}</li>
* </ul>
*
* @throws IOException if an error occurred while writing to the given appendable.
*/
@Override
public void format(final Object object, final Appendable toAppendTo) throws IOException {
ArgumentChecks.ensureNonNull("object", object);
ArgumentChecks.ensureNonNull("toAppendTo", toAppendTo);
/*
* Separate the Feature (optional) and the FeatureType (mandatory) instances.
*/
final DefaultFeatureType featureType;
final AbstractFeature feature;
if (object instanceof AbstractFeature) {
feature = (AbstractFeature) object;
featureType = feature.getType();
} else if (object instanceof DefaultFeatureType) {
featureType = (DefaultFeatureType) object;
feature = null;
} else {
throw new IllegalArgumentException(Errors.getResources(displayLocale).getString(Errors.Keys.UnsupportedType_1, object.getClass()));
}
/*
* Computes the columns to show. We start with the set of columns specified by setAllowedColumns(Set),
* then we check if some of those columns are empty. For example in many cases there is no attribute
* with characteritic, in which case we will ommit the whole "characteristics" column. We perform such
* check only for optional information, not for mandatory information like property names.
*/
final EnumSet<Column> visibleColumns = columns.clone();
{
boolean hasDesignation = false;
boolean hasCharacteristics = false;
boolean hasDeprecatedTypes = false;
for (final AbstractIdentifiedType propertyType : featureType.getProperties(true)) {
if (!hasDesignation) {
hasDesignation = propertyType.getDesignation() != null;
}
if (!hasCharacteristics && propertyType instanceof DefaultAttributeType<?>) {
hasCharacteristics = !((DefaultAttributeType<?>) propertyType).characteristics().isEmpty();
}
if (!hasDeprecatedTypes && propertyType instanceof Deprecable) {
hasDeprecatedTypes = ((Deprecable) propertyType).isDeprecated();
}
}
if (!hasDesignation)
visibleColumns.remove(Column.DESIGNATION);
if (!hasCharacteristics)
visibleColumns.remove(Column.CHARACTERISTICS);
if (!hasDeprecatedTypes)
visibleColumns.remove(Column.REMARKS);
}
/*
* Format the feature type name. In the case of feature type, format also the names of super-type
* after the UML symbol for inheritance (an arrow with white head). We do not use the " : " ASCII
* character for avoiding confusion with the ":" separator in namespaces. After the feature (type)
* name, format the column header: property name, type, cardinality and (default) value.
*/
toAppendTo.append(toString(featureType.getName()));
if (feature == null) {
// UML symbol for inheritance.
String separator = " ⇾ ";
for (final FeatureType parent : featureType.getSuperTypes()) {
toAppendTo.append(separator).append(toString(parent.getName()));
separator = SEPARATOR;
}
}
toAppendTo.append(getLineSeparator());
/*
* Create a table and format the header. Columns will be shown in Column enumeration order.
*/
final Vocabulary resources = Vocabulary.getResources(displayLocale);
final TableAppender table = new TableAppender(toAppendTo, columnSeparator);
table.setMultiLinesCells(true);
table.nextLine('─');
boolean isFirstColumn = true;
for (final Column column : visibleColumns) {
short key = column.resourceKey;
if (key == Vocabulary.Keys.Value && feature == null) {
key = Vocabulary.Keys.DefaultValue;
}
if (!isFirstColumn)
nextColumn(table);
table.append(resources.getString(key));
isFirstColumn = false;
}
table.nextLine();
table.nextLine('─');
/*
* Done writing the header. Now write all property rows. For each row, the first part in the loop
* extracts all information needed without formatting anything yet. If we detect in that part that
* a row has no value, it will be skipped if and only if that row is optional (minimum occurrence
* of zero).
*/
final StringBuffer buffer = new StringBuffer();
final FieldPosition dummyFP = new FieldPosition(-1);
final List<String> remarks = new ArrayList<>();
for (final AbstractIdentifiedType propertyType : featureType.getProperties(true)) {
Object value = null;
int cardinality = -1;
if (feature != null) {
if (!(propertyType instanceof DefaultAttributeType<?>) && !(propertyType instanceof DefaultAssociationRole) && !DefaultFeatureType.isParameterlessOperation(propertyType)) {
continue;
}
value = feature.getPropertyValue(propertyType.getName().toString());
if (value == null) {
if (propertyType instanceof FieldType && ((FieldType) propertyType).getMinimumOccurs() == 0) {
// If optional and no value, skip the full row.
continue;
}
cardinality = 0;
} else if (value instanceof Collection<?>) {
cardinality = ((Collection<?>) value).size();
} else {
cardinality = 1;
}
} else if (propertyType instanceof DefaultAttributeType<?>) {
value = ((DefaultAttributeType<?>) propertyType).getDefaultValue();
} else if (propertyType instanceof AbstractOperation) {
buffer.append(" = ");
try {
((AbstractOperation) propertyType).formatResultFormula(buffer);
} catch (IOException e) {
// Should never happen since we write in a StringBuffer.
throw new UncheckedIOException(e);
}
value = CharSequences.trimWhitespaces(buffer).toString();
buffer.setLength(0);
}
// The value to write in the type column.
final String valueType;
// AttributeType.getValueClass() if applicable.
final Class<?> valueClass;
// Negative values mean no cardinality.
final int minimumOccurs, maximumOccurs;
// Result of operation if applicable.
final AbstractIdentifiedType resultType;
if (propertyType instanceof AbstractOperation) {
// May be null
resultType = ((AbstractOperation) propertyType).getResult();
} else {
resultType = propertyType;
}
if (resultType instanceof DefaultAttributeType<?>) {
final DefaultAttributeType<?> pt = (DefaultAttributeType<?>) resultType;
minimumOccurs = pt.getMinimumOccurs();
maximumOccurs = pt.getMaximumOccurs();
valueClass = pt.getValueClass();
valueType = getFormat(Class.class).format(valueClass, buffer, dummyFP).toString();
buffer.setLength(0);
} else if (resultType instanceof DefaultAssociationRole) {
final DefaultAssociationRole pt = (DefaultAssociationRole) resultType;
minimumOccurs = pt.getMinimumOccurs();
maximumOccurs = pt.getMaximumOccurs();
valueType = toString(DefaultAssociationRole.getValueTypeName(pt));
valueClass = AbstractFeature.class;
} else {
valueType = (resultType != null) ? toString(resultType.getName()) : "";
valueClass = null;
minimumOccurs = -1;
maximumOccurs = -1;
}
/*
* At this point we determined that the row should not be skipped
* and we got all information to format.
*/
isFirstColumn = true;
for (final Column column : visibleColumns) {
if (!isFirstColumn)
nextColumn(table);
isFirstColumn = false;
switch(column) {
/*
* Human-readable name of the property. May contains any characters (spaces, ideographs, etc).
* In many cases, this information is not provided and the whole column is skipped.
*/
case DESIGNATION:
{
final InternationalString d = propertyType.getDesignation();
if (d != null)
table.append(d.toString(displayLocale));
break;
}
/*
* Machine-readable name of the property (identifier). This information is mandatory.
* This name is usually shorter than the designation and should contain only valid
* Unicode identifier characters (e.g. no spaces).
*/
case NAME:
{
table.append(toString(propertyType.getName()));
break;
}
/*
* The base class or interface for all values in properties of the same type.
* This is typically String, Number, Integer, Geometry or URL.
*/
case TYPE:
{
table.append(valueType);
break;
}
/*
* Minimum and maximum number of occurrences allowed for this property.
* If we are formatting a Feature instead than a FeatureType, then the
* actual number of values is also formatted. Example: 42 ∈ [0 … ∞]
*/
case CARDINALITY:
{
table.setCellAlignment(TableAppender.ALIGN_RIGHT);
if (cardinality >= 0) {
table.append(getFormat(Integer.class).format(cardinality, buffer, dummyFP));
buffer.setLength(0);
}
if (maximumOccurs >= 0) {
if (cardinality >= 0) {
table.append(' ').append((cardinality >= minimumOccurs && cardinality <= maximumOccurs) ? '∈' : '∉').append(' ');
}
final Format format = getFormat(Integer.class);
table.append('[').append(format.format(minimumOccurs, buffer, dummyFP)).append(" … ");
buffer.setLength(0);
if (maximumOccurs != Integer.MAX_VALUE) {
table.append(format.format(maximumOccurs, buffer, dummyFP));
} else {
table.append('∞');
}
buffer.setLength(0);
table.append(']');
}
break;
}
/*
* If formatting a FeatureType, the default value. If formatting a Feature, the actual value.
* A java.text.Format instance dedicated to the value class is used if possible. In addition
* to types for which a java.text.Format may be available, we also have to check for other
* special cases. If there is more than one value, they are formatted as a coma-separated list.
*/
case VALUE:
{
table.setCellAlignment(TableAppender.ALIGN_LEFT);
// Null if valueClass is null.
final Format format = getFormat(valueClass);
final Iterator<?> it = CollectionsExt.toCollection(value).iterator();
String separator = "";
int length = 0;
while (it.hasNext()) {
value = it.next();
if (value != null) {
if (propertyType instanceof DefaultAssociationRole) {
final String p = DefaultAssociationRole.getTitleProperty((DefaultAssociationRole) propertyType);
if (p != null) {
value = ((AbstractFeature) value).getPropertyValue(p);
if (value == null)
continue;
}
} else if (format != null && valueClass.isInstance(value)) {
// Null safe because of getFormat(valueClass) contract.
/*
* Convert numbers, dates, angles, etc. to character sequences before to append them in the table.
* Note that DecimalFormat writes Not-a-Number as "NaN" in some locales and as "�" in other locales
* (U+FFFD - Unicode replacement character). The "�" seems to be used mostly for historical reasons;
* as of 2017 the Unicode Common Locale Data Repository (CLDR) seems to define "NaN" for all locales.
* We could configure DecimalFormatSymbols for using "NaN", but (for now) we rather substitute "�" by
* "NaN" here for avoiding to change the DecimalFormat configuration and for distinguishing the NaNs.
*/
final StringBuffer t = format.format(value, buffer, dummyFP);
if (value instanceof Number) {
final float f = ((Number) value).floatValue();
if (Float.isNaN(f)) {
if ("�".contentEquals(t)) {
t.setLength(0);
t.append("NaN");
}
try {
final int n = MathFunctions.toNanOrdinal(f);
if (n > 0)
t.append(" #").append(n);
} catch (IllegalArgumentException e) {
// May happen if the NaN is a signaling NaN instead than a quiet NaN.
final int bits = Float.floatToRawIntBits(f);
if (bits != illegalNaN) {
illegalNaN = bits;
Logging.recoverableException(Logging.getLogger(Modules.FEATURE), FeatureFormat.class, "format", e);
}
}
}
}
value = t;
}
/*
* All values: the numbers, dates, angles, etc. formatted above, any other character sequences
* (e.g. InternationalString), or other kind of values - some of them handled in a special way.
*/
length = formatValue(value, table.append(separator), length);
buffer.setLength(0);
// Value is too long, abandon remaining iterations.
if (length < 0)
break;
separator = SEPARATOR;
length += SEPARATOR.length();
}
}
break;
}
/*
* Characteristics are optional information attached to some values. For example if a property
* value is a temperature measurement, a characteritic of that value may be the unit of measure.
* Characteristics are handled as "attributes of attributes".
*/
case CHARACTERISTICS:
{
if (propertyType instanceof DefaultAttributeType<?>) {
int length = 0;
String separator = "";
format: for (final DefaultAttributeType<?> ct : ((DefaultAttributeType<?>) propertyType).characteristics().values()) {
/*
* Format the characteristic name. We will append the value(s) later.
* We keep trace of the text length in order to stop formatting if the
* text become too long.
*/
final GenericName cn = ct.getName();
final String cs = toString(cn);
table.append(separator).append(cs);
length += separator.length() + cs.length();
Collection<?> cv = CollectionsExt.singletonOrEmpty(ct.getDefaultValue());
if (feature != null) {
/*
* Usually, the property 'cp' below is null because all features use the same
* characteristic value (for example the same unit of measurement), which is
* given by the default value 'cv'. Nevertheless we have to check if current
* feature overrides this characteristic.
*/
final Object cp = feature.getProperty(propertyType.getName().toString());
if (cp instanceof AbstractAttribute<?>) {
// Should always be true, but we are paranoiac.
AbstractAttribute<?> ca = ((AbstractAttribute<?>) cp).characteristics().get(cn.toString());
if (ca != null)
cv = ca.getValues();
}
}
/*
* Now format the value, separated from the name with " = ". Example: unit = m/s
* If the value accepts multi-occurrences, we will format the value between {…}.
* We use {…} because we may have more than one characteristic in the same cell,
* so we need a way to distinguish multi-values from multi-characteristics.
*/
final boolean multi = ct.getMaximumOccurs() > 1;
String sep = multi ? " = {" : " = ";
for (Object c : cv) {
length = formatValue(c, table.append(sep), length += sep.length());
// Value is too long, abandon remaining iterations.
if (length < 0)
break format;
sep = SEPARATOR;
}
separator = SEPARATOR;
if (multi && sep == SEPARATOR) {
table.append('}');
}
}
}
break;
}
case REMARKS:
{
if (org.apache.sis.feature.Field.isDeprecated(propertyType)) {
table.append(resources.getString(Vocabulary.Keys.Deprecated));
final InternationalString r = ((Deprecable) propertyType).getRemarks();
if (r != null) {
remarks.add(r.toString(displayLocale));
appendSuperscript(remarks.size(), table);
}
}
break;
}
}
}
table.nextLine();
}
table.nextLine('─');
table.flush();
/*
* If there is any remarks, write them below the table.
*/
final int n = remarks.size();
for (int i = 0; i < n; i++) {
appendSuperscript(i + 1, toAppendTo);
toAppendTo.append(' ').append(remarks.get(i)).append(lineSeparator);
}
}
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