/*
* The Apache Software License, Version 1.1
*
*
* Copyright (c) 2001 The Apache Software Foundation. All rights
* reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* 1. Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
*
* 2. Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in
* the documentation and/or other materials provided with the
* distribution.
*
* 3. The end-user documentation included with the redistribution,
* if any, must include the following acknowledgment:
* "This product includes software developed by the
* Apache Software Foundation (http://www.apache.org/)."
* Alternately, this acknowledgment may appear in the software itself,
* if and wherever such third-party acknowledgments normally appear.
*
* 4. The names "Axis" and "Apache Software Foundation" must
* not be used to endorse or promote products derived from this
* software without prior written permission. For written
* permission, please contact apache@apache.org.
*
* 5. Products derived from this software may not be called "Apache",
* nor may "Apache" appear in their name, without prior written
* permission of the Apache Software Foundation.
*
* THIS SOFTWARE IS PROVIDED ``AS IS'' AND ANY EXPRESSED OR IMPLIED
* WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
* OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
* DISCLAIMED. IN NO EVENT SHALL THE APACHE SOFTWARE FOUNDATION OR
* ITS CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF
* USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
* ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY,
* OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT
* OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
* SUCH DAMAGE.
* ====================================================================
*
* This software consists of voluntary contributions made by many
* individuals on behalf of the Apache Software Foundation. For more
* information on the Apache Software Foundation, please see
* <http://www.apache.org/>.
*/
package org.apache.axis.wsdl.symbolTable;
import java.io.File;
import java.io.IOException;
import java.net.MalformedURLException;
import java.net.URL;
import java.util.Collection;
import java.util.HashMap;
import java.util.HashSet;
import java.util.Iterator;
import java.util.List;
import java.util.Map;
import java.util.Vector;
import javax.wsdl.Binding;
import javax.wsdl.BindingFault;
import javax.wsdl.BindingOperation;
import javax.wsdl.Definition;
import javax.wsdl.Fault;
import javax.wsdl.Import;
import javax.wsdl.Input;
import javax.wsdl.Message;
import javax.wsdl.Operation;
import javax.wsdl.Output;
import javax.wsdl.Part;
import javax.wsdl.Port;
import javax.wsdl.PortType;
import javax.wsdl.Service;
import javax.wsdl.WSDLException;
import javax.wsdl.extensions.mime.MIMEContent;
import javax.wsdl.extensions.mime.MIMEMultipartRelated;
import javax.wsdl.extensions.mime.MIMEPart;
import javax.wsdl.factory.WSDLFactory;
import javax.xml.namespace.QName;
import javax.wsdl.xml.WSDLReader;
import javax.wsdl.extensions.http.HTTPBinding;
import javax.wsdl.extensions.soap.SOAPBinding;
import javax.wsdl.extensions.soap.SOAPBody;
import javax.xml.rpc.holders.BooleanHolder;
import javax.xml.rpc.holders.IntHolder;
import org.apache.axis.Constants;
import org.apache.axis.utils.JavaUtils;
import org.apache.axis.utils.XMLUtils;
import org.apache.axis.utils.URLHashSet;
import org.w3c.dom.Document;
import org.w3c.dom.NamedNodeMap;
import org.w3c.dom.Node;
import org.w3c.dom.NodeList;
/**
* This class represents a table of all of the top-level symbols from a set of WSDL Definitions and
* DOM Documents: XML types; WSDL messages, portTypes, bindings, and services.
*
* This symbolTable contains entries of the form <key, value> where key is of type QName and value is
* of type Vector. The Vector's elements are all of the objects that have the given QName. This is
* necessary since names aren't unique among the WSDL types. message, portType, binding, service,
* could all have the same QName and are differentiated merely by type. SymbolTable contains
* type-specific getters to bypass the Vector layer:
* public PortTypeEntry getPortTypeEntry(QName name), etc.
*/
public class SymbolTable {
// Should the contents of imported files be added to the symbol table?
private boolean addImports;
// The actual symbol table. This symbolTable contains entries of the form
// <key, value> where key is of type QName and value is of type Vector. The
// Vector's elements are all of the objects that have the given QName. This
// is necessary since names aren't unique among the WSDL types. message,
// portType, binding, service, could all have the same QName and are
// differentiated merely by type. SymbolTable contains type-specific
// getters to bypass the Vector layer:
// public PortTypeEntry getPortTypeEntry(QName name), etc.
private HashMap symbolTable = new HashMap();
// A list of the TypeEntry elements in the symbol table
private Vector types = new Vector();
private boolean verbose;
private boolean debug = false;
private BaseTypeMapping btm = null;
// should we attempt to treat document/literal WSDL as "rpc-style"
private boolean nowrap;
// Did we encounter wraped mode WSDL
private boolean wrapped = false;
public static final String ANON_TOKEN = ">";
private Definition def = null;
private String wsdlURI = null;
/**
* Construct a symbol table with the given Namespaces.
*/
public SymbolTable(BaseTypeMapping btm, boolean addImports,
boolean verbose, boolean debug, boolean nowrap) {
this.btm = btm;
this.addImports = addImports;
this.verbose = verbose;
this.debug = debug;
this.nowrap = nowrap;
} // ctor
/**
* Get the raw symbol table HashMap.
*/
public HashMap getHashMap() {
return symbolTable;
} // getHashMap
/**
* Get the list of entries with the given QName. Since symbols can share QNames, this list is
* necessary. This list will not contain any more than one element of any given SymTabEntry.
*/
public Vector getSymbols(QName qname) {
return (Vector) symbolTable.get(qname);
} // get
/**
* Get the entry with the given QName of the given class. If it does not exist, return null.
*/
public SymTabEntry get(QName qname, Class cls) {
Vector v = (Vector) symbolTable.get(qname);
if (v == null) {
return null;
}
else {
for (int i = 0; i < v.size(); ++i) {
SymTabEntry entry = (SymTabEntry) v.elementAt(i);
if (cls.isInstance(entry)) {
return entry;
}
}
return null;
}
} // get
/**
* Get the type entry for the given qname.
* @param qname
* @param wantElementType boolean that indicates type or element (for type= or ref=)
*/
public TypeEntry getTypeEntry(QName qname, boolean wantElementType) {
if (wantElementType) {
return getElement(qname);
} else
return getType(qname);
} // getTypeEntry
/**
* Get the Type TypeEntry with the given QName. If it doesn't exist, return null.
*/
public Type getType(QName qname) {
for (int i = 0; i < types.size(); ++i) {
TypeEntry type = (TypeEntry) types.get(i);
if (type.getQName().equals(qname)
&& (type instanceof Type)) {
return (Type) type;
}
}
return null;
} // getType
/**
* Get the Element TypeEntry with the given QName. If it doesn't exist, return null.
*/
public Element getElement(QName qname) {
for (int i = 0; i < types.size(); ++i) {
TypeEntry type = (TypeEntry) types.get(i);
if (type.getQName().equals(qname) && type instanceof Element) {
return (Element) type;
}
}
return null;
} // getElement
/**
* Get the MessageEntry with the given QName. If it doesn't exist, return null.
*/
public MessageEntry getMessageEntry(QName qname) {
return (MessageEntry) get(qname, MessageEntry.class);
} // getMessageEntry
/**
* Get the PortTypeEntry with the given QName. If it doesn't exist, return null.
*/
public PortTypeEntry getPortTypeEntry(QName qname) {
return (PortTypeEntry) get(qname, PortTypeEntry.class);
} // getPortTypeEntry
/**
* Get the BindingEntry with the given QName. If it doesn't exist, return null.
*/
public BindingEntry getBindingEntry(QName qname) {
return (BindingEntry) get(qname, BindingEntry.class);
} // getBindingEntry
/**
* Get the ServiceEntry with the given QName. If it doesn't exist, return null.
*/
public ServiceEntry getServiceEntry(QName qname) {
return (ServiceEntry) get(qname, ServiceEntry.class);
} // getServiceEntry
/**
* Get the list of all the XML schema types in the symbol table. In other words, all entries
* that are instances of TypeEntry.
*/
public Vector getTypes() {
return types;
} // getTypes
/**
* Get the Definition. The definition is null until
* populate is called.
*/
public Definition getDefinition() {
return def;
} // getDefinition
/**
* Get the WSDL URI. The WSDL URI is null until populate
* is called, and ONLY if a WSDL URI is provided.
*
*/
public String getWSDLURI() {
return wsdlURI;
} // getWSDLURI
/**
* Are we wrapping literal soap body elements.
*/
public boolean isWrapped() {
return wrapped;
}
/**
* Turn on/off element wrapping for literal soap body's.
*/
public void setWrapped(boolean wrapped) {
this.wrapped = wrapped;
}
/**
* Dump the contents of the symbol table. For debugging purposes only.
*/
public void dump(java.io.PrintStream out) {
out.println();
out.println(JavaUtils.getMessage("symbolTable00"));
out.println("-----------------------");
Iterator it = symbolTable.values().iterator();
while (it.hasNext()) {
Vector v = (Vector) it.next();
for (int i = 0; i < v.size(); ++i) {
out.println(
v.elementAt(i).getClass().getName());
out.println(v.elementAt(i));
}
}
out.println("-----------------------");
} // dump
/**
* Call this method if you have a uri for the WSDL document
* @param uri wsdlURI the location of the WSDL file.
*/
public void populate(String uri) throws IOException, WSDLException {
populate(uri, null, null);
} // populate
public void populate(String uri, String username, String password) throws IOException, WSDLException {
if (verbose)
System.out.println(JavaUtils.getMessage("parsing00", uri));
Document doc = XMLUtils.newDocument(uri, username, password);
if (doc == null) {
throw new IOException(JavaUtils.getMessage("cantGetDoc00", uri));
}
this.wsdlURI = uri;
try {
File f = new File(uri);
if(f.exists()){
uri = f.toURL().toString();
}
} catch (Exception e){
}
populate(uri, doc);
} // populate
/**
* Call this method if your WSDL document has already been parsed as an XML DOM document.
* @param context context This is directory context for the Document. If the Document were from file "/x/y/z.wsdl" then the context could be "/x/y" (even "/x/y/z.wsdl" would work). If context is null, then the context becomes the current directory.
* @param doc doc This is the XML Document containing the WSDL.
*/
public void populate(String context, Document doc) throws IOException, WSDLException {
WSDLReader reader = WSDLFactory.newInstance().newWSDLReader();
reader.setFeature("javax.wsdl.verbose", verbose);
this.def = reader.readWSDL(context, doc);
add(context, def, doc);
} // populate
/**
* Add the given Definition and Document information to the symbol table (including imported
* symbols), populating it with SymTabEntries for each of the top-level symbols. When the
* symbol table has been populated, iterate through it, setting the isReferenced flag
* appropriately for each entry.
*/
private void add(String context, Definition def, Document doc)
throws IOException {
URL contextURL = context == null ? null : getURL(null, context);
populate(contextURL, def, doc, null);
checkForUndefined();
populateParameters();
setReferences(def, doc); // uses wrapped flag set in populateParameters
} // add
/**
* Scan the Definition for undefined objects and throw an error.
*/
private void checkForUndefined(Definition def, String filename) throws IOException {
if (def != null) {
// Bindings
Iterator ib = def.getBindings().values().iterator();
while (ib.hasNext()) {
Binding binding = (Binding) ib.next();
if (binding.isUndefined()) {
if (filename == null) {
throw new IOException(
JavaUtils.getMessage("emitFailtUndefinedBinding01",
binding.getQName().getLocalPart()));
}
else {
throw new IOException(
JavaUtils.getMessage("emitFailtUndefinedBinding02",
binding.getQName().getLocalPart(), filename));
}
}
}
// portTypes
Iterator ip = def.getPortTypes().values().iterator();
while (ip.hasNext()) {
PortType portType = (PortType) ip.next();
if (portType.isUndefined()) {
if (filename == null) {
throw new IOException(
JavaUtils.getMessage("emitFailtUndefinedPort01",
portType.getQName().getLocalPart()));
}
else {
throw new IOException(
JavaUtils.getMessage("emitFailtUndefinedPort02",
portType.getQName().getLocalPart(), filename));
}
}
}
/* tomj: This is a bad idea, faults seem to be undefined
// RJB reply: this MUST be done for those systems that do something with
// messages. Perhaps we have to do an extra step for faults? I'll leave
// this commented for now, until someone uses this generator for something
// other than WSDL2Java.
// Messages
Iterator i = def.getMessages().values().iterator();
while (i.hasNext()) {
Message message = (Message) i.next();
if (message.isUndefined()) {
throw new IOException(
JavaUtils.getMessage("emitFailtUndefinedMessage01",
message.getQName().getLocalPart()));
}
}
*/
}
}
/**
* Scan the symbol table for undefined types and throw an exception.
*/
private void checkForUndefined() throws IOException {
Iterator it = symbolTable.values().iterator();
while (it.hasNext()) {
Vector v = (Vector) it.next();
for (int i = 0; i < v.size(); ++i) {
SymTabEntry entry = (SymTabEntry) v.get(i);
// Report undefined types
if (entry instanceof UndefinedType) {
QName qn = entry.getQName();
// Special case dateTime/timeInstant that changed
// from version to version.
if ((qn.getLocalPart().equals("dateTime") &&
!qn.getNamespaceURI().equals(Constants.URI_2001_SCHEMA_XSD)) ||
(qn.getLocalPart().equals("timeInstant") &&
qn.getNamespaceURI().equals(Constants.URI_2001_SCHEMA_XSD))) {
throw new IOException(
JavaUtils.getMessage("wrongNamespace00",
qn.getLocalPart(),
qn.getNamespaceURI()));
}
// Check for a undefined XSD Schema Type and throw
// an unsupported message instead of undefined
if (SchemaUtils.isSimpleSchemaType(entry.getQName())) {
throw new IOException(
JavaUtils.getMessage("unsupportedSchemaType00",
qn.getLocalPart()));
}
// last case, its some other undefined thing
throw new IOException(
JavaUtils.getMessage("undefined00",
entry.getQName().toString()));
} // if undefined
else if (entry instanceof UndefinedElement) {
throw new IOException(
JavaUtils.getMessage("undefinedElem00",
entry.getQName().toString()));
}
}
}
} // checkForUndefined
/**
* Add the given Definition and Document information to the symbol table (including imported
* symbols), populating it with SymTabEntries for each of the top-level symbols.
* NOTE: filename is used only by checkForUndefined so that it can report which WSDL file
* has the problem. If we're on the primary WSDL file, then we don't know the name and
* filename will be null. But we know the names of all imported files.
*/
private URLHashSet importedFiles = new URLHashSet();
private void populate(URL context, Definition def, Document doc,
String filename) throws IOException {
if (doc != null) {
populateTypes(context, doc);
if (addImports) {
// Add the symbols from any xsd:import'ed documents.
lookForImports(context, doc);
}
}
if (def != null) {
checkForUndefined(def, filename);
if (addImports) {
// Add the symbols from the wsdl:import'ed WSDL documents
Map imports = def.getImports();
Object[] importKeys = imports.keySet().toArray();
for (int i = 0; i < importKeys.length; ++i) {
Vector v = (Vector) imports.get(importKeys[i]);
for (int j = 0; j < v.size(); ++j) {
Import imp = (Import) v.get(j);
if (!importedFiles.contains(imp.getLocationURI())) {
importedFiles.add(imp.getLocationURI());
URL url = getURL(context, imp.getLocationURI());
populate(url, imp.getDefinition(),
XMLUtils.newDocument(url.toString()),
url.toString());
}
}
}
}
populateMessages(def);
populatePortTypes(def);
populateBindings(def);
populateServices(def);
}
} // populate
/**
* This is essentially a call to "new URL(contextURL, spec)" with extra handling in case spec is
* a file.
*/
private static URL getURL(URL contextURL, String spec) throws IOException {
// First, fix the slashes as windows filenames may have backslashes
// in them, but the URL class wont do the right thing when we later
// process this URL as the contextURL.
String path = spec.replace('\\', '/');
// See if we have a good URL.
URL url = null;
try {
// first, try to treat spec as a full URL
url = new URL(contextURL, path);
// if we are deail with files in both cases, create a url
// by using the directory of the context URL.
if (contextURL != null &&
url.getProtocol().equals("file") &&
contextURL.getProtocol().equals("file")) {
url = getFileURL(contextURL, path);
}
}
catch (MalformedURLException me)
{
// try treating is as a file pathname
url = getFileURL(contextURL, path);
}
// Everything is OK with this URL, although a file url constructed
// above may not exist. This will be caught later when the URL is
// accessed.
return url;
} // getURL
private static URL getFileURL(URL contextURL, String path)
throws IOException {
if (contextURL != null) {
// get the parent directory of the contextURL, and append
// the spec string to the end.
String contextFileName = contextURL.getFile();
URL parent = new File(contextFileName).getParentFile().toURL();
if (parent != null) {
return new URL(parent, path);
}
}
return new URL("file", "", path);
} // getFileURL
/**
* Recursively find all xsd:import'ed objects and call populate for each one.
*/
private void lookForImports(URL context, Node node) throws IOException {
NodeList children = node.getChildNodes();
for (int i = 0; i < children.getLength(); i++) {
Node child = children.item(i);
if ("import".equals(child.getLocalName())) {
NamedNodeMap attributes = child.getAttributes();
Node namespace = attributes.getNamedItem("namespace");
// skip XSD import of soap encoding
if (namespace != null &&
Constants.isSOAP_ENC(namespace.getNodeValue())) {
continue;
}
Node importFile = attributes.getNamedItem("schemaLocation");
if (importFile != null) {
URL url = getURL(context,
importFile.getNodeValue());
if (!importedFiles.contains(url)) {
importedFiles.add(url);
String filename = url.toString();
populate(context, null,
XMLUtils.newDocument(filename), filename);
}
}
}
lookForImports(context, child);
}
} // lookForImports
/**
* Populate the symbol table with all of the Types from the Document.
*/
private void populateTypes(URL context, Document doc) throws IOException {
addTypes(context, doc, ABOVE_SCHEMA_LEVEL);
} // populateTypes
/**
* Utility method which walks the Document and creates Type objects for
* each complexType, simpleType, or element referenced or defined.
*
* What goes into the symbol table? In general, only the top-level types (ie., those just below
* the schema tag). But base types and references can appear below the top level. So anything
* at the top level is added to the symbol table, plus non-Element types (ie, base and refd)
* that appear deep within other types.
*/
private static final int ABOVE_SCHEMA_LEVEL = -1;
private static final int SCHEMA_LEVEL = 0;
private void addTypes(URL context, Node node, int level) throws IOException {
if (node == null) {
return;
}
// Get the kind of node (complexType, wsdl:part, etc.)
QName nodeKind = Utils.getNodeQName(node);
if (nodeKind != null) {
String localPart = nodeKind.getLocalPart();
boolean isXSD = Constants.isSchemaXSD(nodeKind.getNamespaceURI());
if ((isXSD && localPart.equals("complexType") ||
localPart.equals("simpleType"))) {
// If an extension or restriction is present,
// create a type for the reference
Node re = SchemaUtils.getRestrictionOrExtensionNode(node);
if (re != null &&
Utils.getAttribute(re, "base") != null) {
createTypeFromRef(re);
}
// This is a definition of a complex type.
// Create a Type.
createTypeFromDef(node, false, false);
}
else if (isXSD && localPart.equals("element")) {
// Create a type entry for the referenced type
createTypeFromRef(node);
// If an extension or restriction is present,
// create a type for the reference
Node re = SchemaUtils.getRestrictionOrExtensionNode(node);
if (re != null &&
Utils.getAttribute(re, "base") != null) {
createTypeFromRef(re);
}
// Create a type representing an element. (This may
// seem like overkill, but is necessary to support ref=
// and element=.
createTypeFromDef(node, true, level > SCHEMA_LEVEL);
}
else if (isXSD && localPart.equals("attribute")) {
// Create a type entry for the referenced type
BooleanHolder forElement = new BooleanHolder();
QName refQName = Utils.getTypeQName(node, forElement, false);
if (refQName != null && !forElement.value) {
createTypeFromRef(node);
// Get the symbol table entry and make sure it is a simple
// type
if (refQName != null) {
TypeEntry refType = getTypeEntry(refQName, false);
if (refType != null &&
refType instanceof Undefined) {
// Don't know what the type is.
// It better be simple so set it as simple
refType.setSimpleType(true);
} else if (refType == null ||
(!(refType instanceof BaseType) &&
!refType.isSimpleType())) {
// Problem if not simple
throw new IOException(
JavaUtils.getMessage("AttrNotSimpleType01",
refQName.toString()));
}
}
}
}
else if (isXSD && localPart.equals("any")) {
// Map xsd:any element to special xsd:any "type"
if (getType(Constants.XSD_ANY) == null) {
Type type = new BaseType(Constants.XSD_ANY);
symbolTablePut(type);
}
}
else if (localPart.equals("part") &&
Constants.isWSDL(nodeKind.getNamespaceURI())) {
// This is a wsdl part. Create an TypeEntry representing the reference
createTypeFromRef(node);
}
else if (isXSD && localPart.equals("include")) {
String includeName = Utils.getAttribute(node, "schemaLocation");
if (includeName != null) {
URL url = getURL(context, includeName);
Document includeDoc = XMLUtils.newDocument(url.toString());
populate(url, (Definition) null, includeDoc, url.toString());
}
}
}
if (level == ABOVE_SCHEMA_LEVEL) {
if (nodeKind != null && nodeKind.getLocalPart().equals("schema")) {
level = SCHEMA_LEVEL;
}
}
else {
++level;
}
// Recurse through children nodes
NodeList children = node.getChildNodes();
for (int i = 0; i < children.getLength(); i++) {
addTypes(context, children.item(i), level);
}
} // addTypes
/**
* Create a TypeEntry from the indicated node, which defines a type
* that represents a complexType, simpleType or element (for ref=).
*/
private void createTypeFromDef(Node node, boolean isElement,
boolean belowSchemaLevel) throws IOException {
// Get the QName of the node's name attribute value
QName qName = Utils.getNodeNameQName(node);
if (qName != null) {
// If the qname is already registered as a base type,
// don't create a defining type/element.
if (!isElement && btm.getBaseName(qName)!=null) {
return;
}
// If the node has a type or ref attribute, get the
// qname representing the type
BooleanHolder forElement = new BooleanHolder();
QName refQName = Utils.getTypeQName(node, forElement, false);
if (refQName != null) {
// Now get the TypeEntry
TypeEntry refType = getTypeEntry(refQName, forElement.value);
if (!belowSchemaLevel) {
symbolTablePut(new DefinedElement(qName, refType, node, ""));
}
}
else {
// Flow to here indicates no type= or ref= attribute.
// See if this is an array or simple type definition.
IntHolder numDims = new IntHolder();
numDims.value = 0;
QName arrayEQName = SchemaUtils.getArrayComponentQName(node, numDims);
if (arrayEQName != null) {
// Get the TypeEntry for the array element type
refQName = arrayEQName;
TypeEntry refType = getTypeEntry(refQName, false);
if (refType == null) {
// Not defined yet, add one
String baseName = btm.getBaseName(refQName);
if (baseName != null)
refType = new BaseType(refQName);
else
refType = new UndefinedType(refQName);
symbolTablePut(refType);
}
// Create a defined type or element that references refType
String dims = "";
while (numDims.value > 0) {
dims += "[]";
numDims.value--;
}
TypeEntry defType = null;
if (isElement) {
if (!belowSchemaLevel) {
defType = new DefinedElement(qName, refType, node, dims);
}
} else {
defType = new DefinedType(qName, refType, node, dims);
}
if (defType != null) {
symbolTablePut(defType);
}
}
else {
// Create a TypeEntry representing this type/element
String baseName = btm.getBaseName(qName);
if (baseName != null) {
symbolTablePut(new BaseType(qName));
}
else {
// Create a type entry, set whether it should
// be mapped as a simple type, and put it in the
// symbol table.
TypeEntry te = null;
if (!isElement) {
te = new DefinedType(qName, node);
// check if we are an anonymous type underneath
// an element. If so, we point the refType of the
// element to us (the real type).
if (qName.getLocalPart().indexOf(ANON_TOKEN) >= 0 ) {
Node parent = node.getParentNode();
QName parentQName = Utils.getNodeNameQName(parent);
TypeEntry parentType = getElement(parentQName);
if (parentType != null) {
parentType.setRefType(te);
}
}
} else {
if (!belowSchemaLevel) {
te = new DefinedElement(qName, node);
}
}
if (te != null) {
if (SchemaUtils.isSimpleTypeOrSimpleContent(node)) {
te.setSimpleType(true);
}
symbolTablePut(te);
}
}
}
}
}
} // createTypeFromDef
/**
* Node may contain a reference (via type=, ref=, or element= attributes) to
* another type. Create a Type object representing this referenced type.
*/
private void createTypeFromRef(Node node) throws IOException {
// Get the QName of the node's type attribute value
BooleanHolder forElement = new BooleanHolder();
QName qName = Utils.getTypeQName(node, forElement, false);
if (qName != null) {
// Get Type or Element depending on whether type attr was used.
TypeEntry type = getTypeEntry(qName, forElement.value);
// A symbol table entry is created if the TypeEntry is not found
if (type == null) {
// See if this is a special QName for collections
if (qName.getLocalPart().indexOf("[") > 0) {
QName containedQName = Utils.getTypeQName(node, forElement, true);
TypeEntry containedTE = getTypeEntry(containedQName, forElement.value);
if (!forElement.value) {
// Case of type and maxOccurs
if (containedTE == null) {
// Collection Element Type not defined yet, add one.
String baseName = btm.getBaseName(containedQName);
if (baseName != null) {
containedTE = new BaseType(containedQName);
} else {
containedTE = new UndefinedType(containedQName);
}
symbolTablePut(containedTE);
}
symbolTablePut(new CollectionType(qName, containedTE, node, "[]"));
} else {
// Case of ref and maxOccurs
if (containedTE == null) {
containedTE = new UndefinedElement(containedQName);
symbolTablePut(containedTE);
}
symbolTablePut(new CollectionElement(qName, containedTE, node, "[]"));
}
} else {
// Add a BaseType or Undefined Type/Element
String baseName = btm.getBaseName(qName);
if (baseName != null)
symbolTablePut(new BaseType(qName));
else if (forElement.value == false)
symbolTablePut(new UndefinedType(qName));
else
symbolTablePut(new UndefinedElement(qName));
}
}
}
} // createTypeFromRef
/**
* Populate the symbol table with all of the MessageEntry's from the Definition.
*/
private void populateMessages(Definition def) throws IOException {
Iterator i = def.getMessages().values().iterator();
while (i.hasNext()) {
Message message = (Message) i.next();
MessageEntry mEntry = new MessageEntry(message);
symbolTablePut(mEntry);
}
} // populateMessages
/**
* Populate the symbol table with all of the PortTypeEntry's from the Definition.
*/
private void populatePortTypes(Definition def) throws IOException {
Iterator i = def.getPortTypes().values().iterator();
while (i.hasNext()) {
PortType portType = (PortType) i.next();
// If the portType is undefined, then we're parsing a Definition
// that didn't contain a portType, merely a binding that referred
// to a non-existent port type. Don't bother with it.
if (!portType.isUndefined()) {
PortTypeEntry ptEntry = new PortTypeEntry(portType);
symbolTablePut(ptEntry);
}
}
} // populatePortTypes
/**
* Create the parameters and store them in the bindingEntry.
*/
private void populateParameters() throws IOException {
Iterator it = symbolTable.values().iterator();
while (it.hasNext()) {
Vector v = (Vector) it.next();
for (int i = 0; i < v.size(); ++i) {
if (v.get(i) instanceof BindingEntry) {
BindingEntry bEntry = (BindingEntry) v.get(i);
Binding binding = bEntry.getBinding();
PortType portType = binding.getPortType();
HashMap parameters = new HashMap();
Iterator operations = portType.getOperations().iterator();
// get parameters
while(operations.hasNext()) {
Operation operation = (Operation) operations.next();
String namespace = portType.getQName().getNamespaceURI();
Parameters parms = getOperationParameters(operation,
namespace,
bEntry);
parameters.put(operation, parms);
}
bEntry.setParameters(parameters);
}
}
}
} // populate Parameters
/**
* For the given operation, this method returns the parameter info conveniently collated.
* There is a bit of processing that is needed to write the interface, stub, and skeleton.
* Rather than do that processing 3 times, it is done once, here, and stored in the
* Parameters object.
*/
public Parameters getOperationParameters(Operation operation,
String namespace,
BindingEntry bindingEntry) throws IOException {
Parameters parameters = new Parameters();
// The input and output Vectors of Parameters
Vector inputs = new Vector();
Vector outputs = new Vector();
List parameterOrder = operation.getParameterOrdering();
// Handle parameterOrder="", which is techinically illegal
if (parameterOrder != null && parameterOrder.isEmpty()) {
parameterOrder = null;
}
// All input parts MUST be in the parameterOrder list. It is an error otherwise.
if (parameterOrder != null) {
Input input = operation.getInput();
if (input != null) {
Message inputMsg = input.getMessage();
Map allInputs = inputMsg.getParts();
Collection orderedInputs = inputMsg.getOrderedParts(parameterOrder);
if (allInputs.size() != orderedInputs.size()) {
throw new IOException(JavaUtils.getMessage("emitFail00", operation.getName()));
}
}
}
boolean literalInput = false;
boolean literalOutput = false;
if (bindingEntry != null) {
literalInput = (bindingEntry.getInputBodyType(operation) == BindingEntry.USE_LITERAL);
literalOutput = (bindingEntry.getOutputBodyType(operation) == BindingEntry.USE_LITERAL);
}
// Collect all the input parameters
Input input = operation.getInput();
if (input != null) {
getParametersFromParts(inputs,
input.getMessage().getOrderedParts(null),
literalInput,
operation.getName(),
bindingEntry,
false);
}
// Collect all the output parameters
Output output = operation.getOutput();
if (output != null) {
getParametersFromParts(outputs,
output.getMessage().getOrderedParts(null),
literalOutput,
operation.getName(),
bindingEntry,
true); // output parts
}
if (parameterOrder != null) {
// Construct a list of the parameters in the parameterOrder list, determining the
// mode of each parameter and preserving the parameterOrder list.
for (int i = 0; i < parameterOrder.size(); ++i) {
String name = (String) parameterOrder.get(i);
// index in the inputs Vector of the given name, -1 if it doesn't exist.
int index = getPartIndex(name, inputs);
// index in the outputs Vector of the given name, -1 if it doesn't exist.
int outdex = getPartIndex(name, outputs);
if (index >= 0) {
// The mode of this parameter is either in or inout
addInishParm(inputs, outputs, index, outdex, parameters, true);
}
else if (outdex >= 0) {
addOutParm(outputs, outdex, parameters, true);
}
else {
System.err.println(JavaUtils.getMessage("noPart00", name));
}
}
}
// Get the mode info about those parts that aren't in the
// parameterOrder list. Since they're not in the parameterOrder list,
// the order is, first all in (and inout) parameters, then all out
// parameters, in the order they appear in the messages.
for (int i = 0; i < inputs.size(); i++) {
Parameter p = (Parameter)inputs.get(i);
int outdex = getPartIndex(p.getName(), outputs);
addInishParm(inputs, outputs, i, outdex, parameters, false);
}
// Now that the remaining in and inout parameters are collected,
// determine the status of outputs. If there is only 1, then it
// is the return value. If there are more than 1, then they are
// out parameters.
if (outputs.size() == 1) {
parameters.returnParam = (Parameter)outputs.get(0);
if (parameters.returnParam.getType() instanceof DefinedElement) {
parameters.returnParam.setQName(
((DefinedElement)parameters.returnParam.getType())
.getQName());
}
++parameters.outputs;
}
else {
for (int i = 0; i < outputs.size(); i++) {
addOutParm(outputs, i, parameters, false);
}
}
parameters.faults = operation.getFaults();
return parameters;
} // parameters
/**
* Return the index of the given name in the given Vector, -1 if it doesn't exist.
*/
private int getPartIndex(String name, Vector v) {
for (int i = 0; i < v.size(); i++) {
if (name.equals(((Parameter)v.get(i)).getName())) {
return i;
}
}
return -1;
} // getPartIndex
/**
* Add an in or inout parameter to the parameters object.
*/
private void addInishParm(Vector inputs,
Vector outputs,
int index,
int outdex,
Parameters parameters,
boolean trimInput) throws IOException {
Parameter p = (Parameter)inputs.get(index);
// If this is an element, we want the XML to reflect the element name
// not the part name.
if (p.getType() instanceof DefinedElement) {
DefinedElement de = (DefinedElement)p.getType();
p.setQName(de.getQName());
}
// Should we remove the given parameter type/name entries from the Vector?
if (trimInput) {
inputs.remove(index);
}
// At this point we know the name and type of the parameter, and that it's at least an
// in parameter. Now check to see whether it's also in the outputs Vector. If it is,
// then it's an inout parameter.
// Don't bother doing this if the parameters are wrapped since their
// names won't be the part names.
if (outdex >= 0 && !wrapped) {
Parameter outParam = (Parameter)outputs.get(outdex);
if (p.getType().equals(outParam.getType())) {
outputs.remove(outdex);
p.setMode(Parameter.INOUT);
++parameters.inouts;
} else {
// If we're here, we have both an input and an output
// part with the same name but different types.... guess
// it's not really an inout....
//
//throw new IOException(JavaUtils.getMessage("differentTypes00",
// new String[] { p.getName(),
// p.getType().getQName().toString(),
// outParam.getType().getQName().toString()
// }
//));
// There is some controversy about this, and the specs are
// a bit vague about what should happen if the types don't
// agree. Throwing an error is not correct with document/lit
// operations, as part names get resused (i.e. "body").
// See WSDL 1.1 section 2.4.6,
// WSDL 1.2 working draft 9 July 2002 section 2.3.1
++parameters.inputs;
}
} else {
++parameters.inputs;
}
parameters.list.add(p);
} // addInishParm
/**
* Add an output parameter to the parameters object.
*/
private void addOutParm(Vector outputs,
int outdex,
Parameters parameters,
boolean trim) {
Parameter p = (Parameter)outputs.get(outdex);
if (p.getType() instanceof DefinedElement) {
DefinedElement de = (DefinedElement)p.getType();
p.setQName(de.getQName());
}
if (trim) {
outputs.remove(outdex);
}
p.setMode(Parameter.OUT);
++parameters.outputs;
parameters.list.add(p);
} // addOutParm
/**
* This method returns a vector containing Parameters which represent
* each Part (shouldn't we call these "Parts" or something?)
*/
public void getParametersFromParts(Vector v,
Collection parts,
boolean literal,
String opName,
BindingEntry bindingEntry,
boolean outputParts)
throws IOException {
Iterator i = parts.iterator();
// Determine if there's only one element. For wrapped
// style, we normally only have 1 part which is an
// element. But with MIME we could have any number of
// types along with that single element. As long as
// there's only ONE element, and it's the same name as
// the operation, we can unwrap it.
int numberOfElements = 0;
boolean possiblyWrapped = false;
while (i.hasNext()) {
Part part = (Part) i.next();
if (part.getElementName() != null) {
++numberOfElements;
if (part.getElementName().getLocalPart().equals(opName)) {
possiblyWrapped = true;
}
}
}
// Hack alert - Try to sense "wrapped" document literal mode
// if we haven't been told not to.
// Criteria:
// - If there is a single element part,
// - That part is an element
// - That element has the same name as the operation
// - That element has no attributes (check done below)
if (!nowrap &&
literal &&
numberOfElements == 1 &&
possiblyWrapped) {
wrapped = true;
}
i = parts.iterator();
while (i.hasNext()) {
Parameter param = new Parameter();
Part part = (Part) i.next();
QName elementName = part.getElementName();
QName typeName = part.getTypeName();
String partName = part.getName();
// We're either:
// 1. encoded
// 2. literal & not wrapped.
if (!literal || !wrapped || elementName == null) {
param.setName(partName);
// Add this type or element name
if (typeName != null) {
param.setType(getType(typeName));
} else if (elementName != null) {
// Just an FYI: The WSDL spec says that for use=encoded
// that parts reference an abstract type using the type attr
// but we kinda do the right thing here, so let it go.
// if (!literal)
// error...
param.setType(getElement(elementName));
} else {
// no type or element
throw new IOException(
JavaUtils.getMessage("noTypeOrElement00",
new String[] {partName,
opName}));
}
setMIMEType(param, bindingEntry == null ? null :
bindingEntry.getMIMEType(opName, partName));
v.add(param);
continue; // next part
}
// flow to here means wrapped literal !
// See if we can map all the XML types to java(?) types
// if we can, we use these as the types
Node node = null;
if (typeName != null && bindingEntry.getMIMETypes().size() == 0) {
// Since we can't (yet?) make the Axis engine generate the right
// XML for literal parts that specify the type attribute,
// (unless they're MIME types) abort processing with an
// error if we encounter this case
//
// node = getTypeEntry(typeName, false).getNode();
String bindingName =
bindingEntry == null ? "unknown" : bindingEntry.getBinding().getQName().toString();
throw new IOException(
JavaUtils.getMessage("literalTypePart00",
new String[] {partName,
opName,
bindingName}));
}
// Get the node which corresponds to the type entry for this
// element. i.e.:
// <part name="part" element="foo:bar"/>
// ...
// <schema targetNamespace="foo">
// <element name="bar"...> <--- This one
node = getTypeEntry(elementName, true).getNode();
// Check if this element is of the form:
// <element name="foo" type="tns:foo_type"/>
BooleanHolder forElement = new BooleanHolder();
QName type = Utils.getTypeQName(node, forElement, false);
if (type != null && !forElement.value) {
// If in fact we have such a type, go get the node that
// corresponds to THAT definition.
node = getTypeEntry(type, false).getNode();
}
// If we have nothing at this point, we're in trouble.
if (node == null) {
throw new IOException(
JavaUtils.getMessage("badTypeNode",
new String[] {
partName,
opName,
elementName.toString()}));
}
// check for attributes
Vector vAttrs = SchemaUtils.getContainedAttributeTypes(node, this);
if (vAttrs != null) {
// can't do wrapped mode
wrapped = false;
}
// More conditions for wrapped mode to track JAX-RPC RI behavior
// If we are dealing with output parameters:
// - wrapped operations "dig into" the structure of the returned element
// and return the inner element type IF:
// 1) there are no attributes on the "wrapper" element
// 2) there is a single element inside the "wrapper" (the return type)
//
// - wrapped operations return a bean mapped to the entire return
// element otherwise
// Get the nested type entries.
// TODO - If we are unable to represent any of the types in the
// element, we need to use SOAPElement/SOAPBodyElement.
// I don't believe getContainedElementDecl does the right thing yet.
Vector vTypes =
SchemaUtils.getContainedElementDeclarations(node, this);
// IF we got the types entries and we didn't find attributes
// AND either we are not doing output params OR
// there is only one element in a wrapped output param
// THEN use the things in this element as the parameters
if (vTypes != null && wrapped &&
(!outputParts) || (vTypes.size() <= 1 && outputParts)) {
// add the elements in this list
for (int j = 0; j < vTypes.size(); j++) {
ElementDecl elem = (ElementDecl) vTypes.elementAt(j);
Parameter p = new Parameter();
p.setQName(elem.getName());
p.setType(elem.getType());
setMIMEType(p, bindingEntry == null ? null :
bindingEntry.getMIMEType(opName, partName));
v.add(p);
}
} else {
// - we were unable to get the types OR
// - we found attributes OR
// - we are doing output parameters (and there is more than 1)
// so we can't use wrapped mode.
param.setName(partName);
if (typeName != null) {
param.setType(getType(typeName));
} else if (elementName != null) {
// An ugly hack here to set the referenced flag on the
// element and the anonymous type that the element defines
// There must be a better way to get this done.
Element element = getElement(elementName);
element.setIsReferenced(true);
QName anonQName = SchemaUtils.getElementAnonQName(element.getNode());
if (anonQName != null) {
TypeEntry anonType = getType(anonQName);
anonType.setIsReferenced(true);
}
param.setType(element);
}
setMIMEType(param, bindingEntry == null ? null :
bindingEntry.getMIMEType(opName, partName));
v.add(param);
}
} // while
} // getParametersFromParts
/**
* Set the MIME type. This can be determine in one of two ways:
* 1. From WSDL 1.1 MIME constructs on the binding (passed in);
* 2. From AXIS-specific xml MIME types.
*/
private void setMIMEType(Parameter p, String mimeType) {
// If there is no binding MIME construct (ie., the mimeType parameter is
// null), then get the MIME type from the AXIS-specific xml MIME type.
if (mimeType == null) {
QName mimeQName = p.getType().getQName();
if (mimeQName.getNamespaceURI().equals(Constants.NS_URI_XMLSOAP)) {
if (Constants.MIME_IMAGE.equals(mimeQName)) {
mimeType = "image/jpeg";
}
else if (Constants.MIME_PLAINTEXT.equals(mimeQName)) {
mimeType = "text/plain";
}
else if (Constants.MIME_MULTIPART.equals(mimeQName)) {
mimeType = "multipart/related";
}
else if (Constants.MIME_SOURCE.equals(mimeQName)) {
mimeType = "text/xml";
}
}
}
p.setMIMEType(mimeType);
} // setMIMEType
/**
* Populate the symbol table with all of the BindingEntry's from the Definition.
*/
private void populateBindings(Definition def) throws IOException {
Iterator i = def.getBindings().values().iterator();
while (i.hasNext()) {
int bindingStyle = BindingEntry.STYLE_DOCUMENT;
int bindingType = BindingEntry.TYPE_UNKNOWN;
Binding binding = (Binding) i.next();
Iterator extensibilityElementsIterator = binding.getExtensibilityElements().iterator();
while (extensibilityElementsIterator.hasNext()) {
Object obj = extensibilityElementsIterator.next();
if (obj instanceof SOAPBinding) {
bindingType = BindingEntry.TYPE_SOAP;
SOAPBinding sb = (SOAPBinding) obj;
String style = sb.getStyle();
if ("rpc".equalsIgnoreCase(style)) {
bindingStyle = BindingEntry.STYLE_RPC;
}
}
else if (obj instanceof HTTPBinding) {
HTTPBinding hb = (HTTPBinding) obj;
if (hb.getVerb().equalsIgnoreCase("post")) {
bindingType = BindingEntry.TYPE_HTTP_POST;
}
else {
bindingType = BindingEntry.TYPE_HTTP_GET;
}
}
}
// Check the Binding Operations for use="literal"
boolean hasLiteral = false;
HashMap attributes = new HashMap();
List bindList = binding.getBindingOperations();
Map mimeTypes = new HashMap();
for (Iterator opIterator = bindList.iterator(); opIterator.hasNext();) {
int inputBodyType = BindingEntry.USE_ENCODED;
int outputBodyType = BindingEntry.USE_ENCODED;
BindingOperation bindOp = (BindingOperation) opIterator.next();
Map opMimeTypes = new HashMap();
mimeTypes.put(bindOp.getName(), opMimeTypes);
// input
if (bindOp.getBindingInput() != null) {
if (bindOp.getBindingInput().getExtensibilityElements() != null) {
Iterator inIter = bindOp.getBindingInput().getExtensibilityElements().iterator();
for (; inIter.hasNext();) {
Object obj = inIter.next();
if (obj instanceof SOAPBody) {
String use = ((SOAPBody) obj).getUse();
if (use == null) {
throw new IOException(JavaUtils.getMessage(
"noUse", bindOp.getName()));
}
if (use.equalsIgnoreCase("literal")) {
inputBodyType = BindingEntry.USE_LITERAL;
}
break;
}
else if (obj instanceof MIMEMultipartRelated) {
IntHolder holder = new IntHolder(inputBodyType);
opMimeTypes.putAll(collectMIMETypes(
(MIMEMultipartRelated) obj, holder, bindOp));
inputBodyType = holder.value;
}
}
}
}
// output
if (bindOp.getBindingOutput() != null) {
if (bindOp.getBindingOutput().getExtensibilityElements() != null) {
Iterator outIter = bindOp.getBindingOutput().getExtensibilityElements().iterator();
for (; outIter.hasNext();) {
Object obj = outIter.next();
if (obj instanceof SOAPBody) {
String use = ((SOAPBody) obj).getUse();
if (use == null) {
throw new IOException(JavaUtils.getMessage(
"noUse", bindOp.getName()));
}
if (use.equalsIgnoreCase("literal")) {
outputBodyType = BindingEntry.USE_LITERAL;
}
break;
}
else if (obj instanceof MIMEMultipartRelated) {
IntHolder holder = new IntHolder(outputBodyType);
opMimeTypes.putAll(collectMIMETypes(
(MIMEMultipartRelated) obj, holder, bindOp));
outputBodyType = holder.value;
}
}
}
}
// faults
HashMap faultMap = new HashMap();
Iterator faultMapIter = bindOp.getBindingFaults().values().iterator();
for (; faultMapIter.hasNext(); ) {
BindingFault bFault = (BindingFault)faultMapIter.next();
// Set default entry for this fault
String faultName = bFault.getName();
int faultBodyType = BindingEntry.USE_ENCODED;
Iterator faultIter =
bFault.getExtensibilityElements().iterator();
for (; faultIter.hasNext();) {
Object obj = faultIter.next();
if (obj instanceof SOAPBody) {
String use = ((SOAPBody) obj).getUse();
if (use == null) {
throw new IOException(JavaUtils.getMessage(
"noUse", bindOp.getName()));
}
if (use.equalsIgnoreCase("literal")) {
faultBodyType = BindingEntry.USE_LITERAL;
}
break;
}
}
// Add this fault name and bodyType to the map
faultMap.put(faultName, new Integer(faultBodyType));
}
// Associate the portType operation that goes with this binding
// with the body types.
attributes.put(bindOp.getOperation(),
new BindingEntry.OperationAttr(inputBodyType, outputBodyType, faultMap));
// If the input or output body uses literal, flag the binding as using literal.
// NOTE: should I include faultBodyType in this check?
if (inputBodyType == BindingEntry.USE_LITERAL ||
outputBodyType == BindingEntry.USE_LITERAL) {
hasLiteral = true;
}
} // binding operations
BindingEntry bEntry = new BindingEntry(binding, bindingType, bindingStyle, hasLiteral, attributes, mimeTypes);
symbolTablePut(bEntry);
}
} // populateBindings
/**
* Collect the list of those parts that are really MIME types.
*/
private Map collectMIMETypes(MIMEMultipartRelated mpr, IntHolder bodyType,
BindingOperation bindOp) throws IOException {
HashMap mimeTypes = new HashMap();
List parts = mpr.getMIMEParts();
Iterator i = parts.iterator();
while (i.hasNext()) {
MIMEPart part = (MIMEPart) i.next();
List elems = part.getExtensibilityElements();
Iterator j = elems.iterator();
while (j.hasNext()) {
Object obj = j.next();
if (obj instanceof MIMEContent) {
MIMEContent content = (MIMEContent) obj;
mimeTypes.put(content.getPart(), content.getType());
}
else if (obj instanceof SOAPBody) {
String use = ((SOAPBody) obj).getUse();
if (use == null) {
throw new IOException(JavaUtils.getMessage(
"noUse", bindOp.getName()));
}
if (use.equalsIgnoreCase("literal")) {
bodyType.value = BindingEntry.USE_LITERAL;
}
}
}
}
return mimeTypes;
} // collectMIMETypes
/**
* Populate the symbol table with all of the ServiceEntry's from the Definition.
*/
private void populateServices(Definition def) throws IOException {
Iterator i = def.getServices().values().iterator();
while (i.hasNext()) {
Service service = (Service) i.next();
// do a bit of name validation
if (service.getQName() == null ||
service.getQName().getLocalPart() == null ||
service.getQName().getLocalPart().equals("")) {
throw new IOException(JavaUtils.getMessage("BadServiceName00"));
}
ServiceEntry sEntry = new ServiceEntry(service);
symbolTablePut(sEntry);
}
} // populateServices
/**
* Set each SymTabEntry's isReferenced flag. The default is false. If no other symbol
* references this symbol, then leave it false, otherwise set it to true.
* (An exception to the rule is that derived types are set as referenced if
* their base type is referenced. This is necessary to support generation and
* registration of derived types.)
*/
private void setReferences(Definition def, Document doc) {
Map stuff = def.getServices();
if (stuff.isEmpty()) {
stuff = def.getBindings();
if (stuff.isEmpty()) {
stuff = def.getPortTypes();
if (stuff.isEmpty()) {
stuff = def.getMessages();
if (stuff.isEmpty()) {
for (int i = 0; i < types.size(); ++i) {
TypeEntry type = (TypeEntry) types.get(i);
setTypeReferences(type, doc, false);
}
}
else {
Iterator i = stuff.values().iterator();
while (i.hasNext()) {
Message message = (Message) i.next();
MessageEntry mEntry =
getMessageEntry(message.getQName());
setMessageReferences(mEntry, def, doc, false);
}
}
}
else {
Iterator i = stuff.values().iterator();
while (i.hasNext()) {
PortType portType = (PortType) i.next();
PortTypeEntry ptEntry =
getPortTypeEntry(portType.getQName());
setPortTypeReferences(ptEntry, null, def, doc);
}
}
}
else {
Iterator i = stuff.values().iterator();
while (i.hasNext()) {
Binding binding = (Binding) i.next();
BindingEntry bEntry = getBindingEntry(binding.getQName());
setBindingReferences(bEntry, def, doc);
}
}
}
else {
Iterator i = stuff.values().iterator();
while (i.hasNext()) {
Service service = (Service) i.next();
ServiceEntry sEntry = getServiceEntry(service.getQName());
setServiceReferences(sEntry, def, doc);
}
}
} // setReferences
/**
* Set the isReferenced flag to true on the given TypeEntry and all
* SymTabEntries that it refers to.
*/
private void setTypeReferences(TypeEntry entry, Document doc,
boolean literal) {
// Check to see if already processed.
if ((entry.isReferenced() && !literal) ||
(entry.isOnlyLiteralReferenced() && literal)) {
return;
}
if (wrapped) {
// If this type is ONLY referenced from a literal usage in a binding,
// then isOnlyLiteralReferenced should return true.
if (!entry.isReferenced() && literal) {
entry.setOnlyLiteralReference(true);
}
// If this type was previously only referenced as a literal type,
// but now it is referenced in a non-literal manner, turn off the
// onlyLiteralReference flag.
else if (entry.isOnlyLiteralReferenced() && !literal) {
entry.setOnlyLiteralReference(false);
}
}
// If we don't want to emit stuff from imported files, only set the
// isReferenced flag if this entry exists in the immediate WSDL file.
Node node = entry.getNode();
if (addImports || node == null || node.getOwnerDocument() == doc) {
entry.setIsReferenced(true);
if (entry instanceof DefinedElement) {
BooleanHolder forElement = new BooleanHolder();
QName referentName = Utils.getTypeQName(node, forElement, false);
if (referentName != null) {
TypeEntry referent = getTypeEntry(referentName, forElement.value);
if (referent != null) {
setTypeReferences(referent, doc, literal);
}
}
// If the Defined Element has an anonymous type,
// process it with the current literal flag setting.
QName anonQName = SchemaUtils.getElementAnonQName(entry.getNode());
if (anonQName != null) {
TypeEntry anonType = getType(anonQName);
if (anonType != null) {
setTypeReferences(anonType, doc, literal);
return;
}
}
}
}
HashSet nestedTypes = Utils.getNestedTypes(entry, this, true);
Iterator it = nestedTypes.iterator();
while (it.hasNext()) {
TypeEntry nestedType = (TypeEntry) it.next();
if (!nestedType.isReferenced()) {
//setTypeReferences(nestedType, doc, literal);
setTypeReferences(nestedType, doc, false);
}
}
} // setTypeReferences
/**
* Set the isReferenced flag to true on the given MessageEntry and all
* SymTabEntries that it refers to.
*/
private void setMessageReferences(
MessageEntry entry, Definition def, Document doc, boolean literal) {
// If we don't want to emit stuff from imported files, only set the
// isReferenced flag if this entry exists in the immediate WSDL file.
Message message = entry.getMessage();
if (addImports) {
entry.setIsReferenced(true);
}
else {
// NOTE: I thought I could have simply done:
// if (def.getMessage(message.getQName()) != null)
// but that method traces through all imported messages.
Map messages = def.getMessages();
if (messages.containsValue(message)) {
entry.setIsReferenced(true);
}
}
// Set all the message's types
Iterator parts = message.getParts().values().iterator();
while (parts.hasNext()) {
Part part = (Part) parts.next();
TypeEntry type = getType(part.getTypeName());
if (type != null) {
setTypeReferences(type, doc, literal);
}
type = getElement(part.getElementName());
if (type != null) {
setTypeReferences(type, doc, literal);
TypeEntry refType = type.getRefType();
if (refType != null) {
setTypeReferences(refType, doc, literal);
}
}
}
} // setMessageReference
/**
* Set the isReferenced flag to true on the given PortTypeEntry and all
* SymTabEntries that it refers to.
*/
private void setPortTypeReferences(
PortTypeEntry entry, BindingEntry bEntry,
Definition def, Document doc) {
// If we don't want to emit stuff from imported files, only set the
// isReferenced flag if this entry exists in the immediate WSDL file.
PortType portType = entry.getPortType();
if (addImports) {
entry.setIsReferenced(true);
}
else {
// NOTE: I thought I could have simply done:
// if (def.getPortType(portType.getQName()) != null)
// but that method traces through all imported portTypes.
Map portTypes = def.getPortTypes();
if (portTypes.containsValue(portType)) {
entry.setIsReferenced(true);
}
}
// Set all the portType's messages
Iterator operations = portType.getOperations().iterator();
// For each operation, query its input, output, and fault messages
while (operations.hasNext()) {
Operation operation = (Operation) operations.next();
Input input = operation.getInput();
Output output = operation.getOutput();
// Find out if this reference is a literal reference or not.
boolean literalInput = false;
boolean literalOutput = false;
if (bEntry != null) {
literalInput = bEntry.getInputBodyType(operation) ==
BindingEntry.USE_LITERAL;
literalOutput = bEntry.getOutputBodyType(operation) ==
BindingEntry.USE_LITERAL;
}
// Query the input message
if (input != null) {
Message message = input.getMessage();
if (message != null) {
MessageEntry mEntry = getMessageEntry(message.getQName());
if (mEntry != null) {
setMessageReferences(mEntry, def, doc, literalInput);
}
}
}
// Query the output message
if (output != null) {
Message message = output.getMessage();
if (message != null) {
MessageEntry mEntry = getMessageEntry(message.getQName());
if (mEntry != null) {
setMessageReferences(mEntry, def, doc, literalOutput);
}
}
}
// Query the fault messages
Iterator faults =
operation.getFaults().values().iterator();
while (faults.hasNext()) {
Message message = ((Fault) faults.next()).getMessage();
if (message != null) {
MessageEntry mEntry = getMessageEntry(message.getQName());
if (mEntry != null) {
setMessageReferences(mEntry, def, doc, false);
}
}
}
}
} // setPortTypeReferences
/**
* Set the isReferenced flag to true on the given BindingEntry and all
* SymTabEntries that it refers to ONLY if this binding is a SOAP binding.
*/
private void setBindingReferences(
BindingEntry entry, Definition def, Document doc) {
if (entry.getBindingType() == BindingEntry.TYPE_SOAP) {
// If we don't want to emit stuff from imported files, only set the
// isReferenced flag if this entry exists in the immediate WSDL file.
Binding binding = entry.getBinding();
if (addImports) {
entry.setIsReferenced(true);
}
else {
// NOTE: I thought I could have simply done:
// if (def.getBindng(binding.getQName()) != null)
// but that method traces through all imported bindings.
Map bindings = def.getBindings();
if (bindings.containsValue(binding)) {
entry.setIsReferenced(true);
}
}
// Set all the binding's portTypes
PortType portType = binding.getPortType();
PortTypeEntry ptEntry = getPortTypeEntry(portType.getQName());
if (ptEntry != null) {
setPortTypeReferences(ptEntry, entry, def, doc);
}
}
} // setBindingReferences
/**
* Set the isReferenced flag to true on the given ServiceEntry and all
* SymTabEntries that it refers to.
*/
private void setServiceReferences(
ServiceEntry entry, Definition def, Document doc) {
// If we don't want to emit stuff from imported files, only set the
// isReferenced flag if this entry exists in the immediate WSDL file.
Service service = entry.getService();
if (addImports) {
entry.setIsReferenced(true);
}
else {
// NOTE: I thought I could have simply done:
// if (def.getService(service.getQName()) != null)
// but that method traces through all imported services.
Map services = def.getServices();
if (services.containsValue(service)) {
entry.setIsReferenced(true);
}
}
// Set all the service's bindings
Iterator ports = service.getPorts().values().iterator();
while (ports.hasNext()) {
Port port = (Port) ports.next();
Binding binding = (Binding) port.getBinding();
BindingEntry bEntry = getBindingEntry(binding.getQName());
if (bEntry != null) {
setBindingReferences(bEntry, def, doc);
}
}
} // setServiceReferences
/**
* Put the given SymTabEntry into the symbol table, if appropriate.
*/
private void symbolTablePut(SymTabEntry entry) throws IOException {
QName name = entry.getQName();
if (get(name, entry.getClass()) == null) {
// An entry of the given qname of the given type doesn't exist yet.
if (entry instanceof Type &&
get(name, UndefinedType.class) != null) {
// A undefined type exists in the symbol table, which means
// that the type is used, but we don't yet have a definition for
// the type. Now we DO have a definition for the type, so
// replace the existing undefined type with the real type.
if (((TypeEntry)get(name, UndefinedType.class)).isSimpleType() &&
!((TypeEntry)entry).isSimpleType()) {
// Problem if the undefined type was used in a
// simple type context.
throw new IOException(
JavaUtils.getMessage("AttrNotSimpleType01",
name.toString()));
}
Vector v = (Vector) symbolTable.get(name);
for (int i = 0; i < v.size(); ++i) {
Object oldEntry = v.elementAt(i);
if (oldEntry instanceof UndefinedType) {
// Replace it in the symbol table
v.setElementAt(entry, i);
// Replace it in the types Vector
for (int j = 0; j < types.size(); ++j) {
if (types.elementAt(j) == oldEntry) {
types.setElementAt(entry, j);
}
}
// Update all of the entries that refer to the unknown type
((UndefinedType)oldEntry).update((Type)entry);
}
}
} else if (entry instanceof Element &&
get(name, UndefinedElement.class) != null) {
// A undefined element exists in the symbol table, which means
// that the element is used, but we don't yet have a definition for
// the element. Now we DO have a definition for the element, so
// replace the existing undefined element with the real element.
Vector v = (Vector) symbolTable.get(name);
for (int i = 0; i < v.size(); ++i) {
Object oldEntry = v.elementAt(i);
if (oldEntry instanceof UndefinedElement) {
// Replace it in the symbol table
v.setElementAt(entry, i);
// Replace it in the types Vector
for (int j = 0; j < types.size(); ++j) {
if (types.elementAt(j) == oldEntry) {
types.setElementAt(entry, j);
}
}
// Update all of the entries that refer to the unknown type
((Undefined)oldEntry).update((Element)entry);
}
}
}
else {
// Add this entry to the symbol table
Vector v = (Vector) symbolTable.get(name);
if (v == null) {
v = new Vector();
symbolTable.put(name, v);
}
v.add(entry);
if (entry instanceof TypeEntry) {
types.add(entry);
}
}
}
else {
throw new IOException(
JavaUtils.getMessage("alreadyExists00", "" + name));
}
} // symbolTablePut
} // class SymbolTable