Code:
/ FX-1434 / FX-1434 / 1.0 / untmp / whidbey / REDBITS / ndp / fx / src / Designer / CompMod / System / ComponentModel / Design / Serialization / TypeCodeDomSerializer.cs / 1 / TypeCodeDomSerializer.cs
//------------------------------------------------------------------------------
//
// Copyright (c) Microsoft Corporation. All rights reserved.
//
//-----------------------------------------------------------------------------
namespace System.ComponentModel.Design.Serialization {
using System;
using System.CodeDom;
using System.CodeDom.Compiler;
using System.Collections;
using System.Collections.Generic;
using System.Collections.Specialized;
using System.Design;
using System.Diagnostics;
///
/// This class performs the same tasks as a CodeDomSerializer only serializing an object through this class defines a new type.
///
[DefaultSerializationProvider(typeof(CodeDomSerializationProvider))]
public class TypeCodeDomSerializer : CodeDomSerializerBase {
// Used only during deserialization to provide name to object mapping.
private IDictionary _nameTable;
private Dictionary _statementTable;
private static readonly Attribute[] _designTimeFilter = new Attribute[] { DesignOnlyAttribute.Yes };
private static readonly Attribute[] _runTimeFilter = new Attribute[] { DesignOnlyAttribute.No };
private static object _initMethodKey = new object();
private static TypeCodeDomSerializer _default;
internal static TypeCodeDomSerializer Default {
get {
if (_default == null) {
_default = new TypeCodeDomSerializer();
}
return _default;
}
}
///
/// This method deserializes a previously serialized code type declaration. The default
/// implementation performs the following tasks:
///
/// � Case Sensitivity Checks: It looks for a CodeDomProvider service to decide if it should treat
/// members as case sensitive or case insensitive.
/// � Statement Sorting: All member variables and local variables from init methods are stored in
/// a table. Then each statement in an init method is added to a statement collection grouped according
/// to its left hand side. So all statements assigning or operating on a particular variable are grouped
/// under that variable. Variables that have no statements are discarded.
/// � Deserialization: Finally, the statement collections for each variable are deserialized
/// according to the variable.
///
/// Deserialize returns an instance of the root object.
///
public virtual object Deserialize(IDesignerSerializationManager manager, CodeTypeDeclaration declaration) {
if (manager == null) {
throw new ArgumentNullException("manager");
}
if (declaration == null) {
throw new ArgumentNullException("declaration");
}
object rootObject = null;
using (TraceScope("TypeCodeDomSerializer::Deserialize")) {
// Determine case-sensitivity
bool caseInsensitive = false;
CodeDomProvider provider = manager.GetService(typeof(CodeDomProvider)) as CodeDomProvider;
TraceWarningIf(provider == null, "Unable to determine case sensitivity. Make sure CodeDomProvider is a service of the manager.");
if (provider != null) {
caseInsensitive = ((provider.LanguageOptions & LanguageOptions.CaseInsensitive) != 0);
}
// Get and initialize the document type.
Type baseType = null;
string baseTypeName = declaration.Name;
foreach (CodeTypeReference typeRef in declaration.BaseTypes) {
Type t = manager.GetType(GetTypeNameFromCodeTypeReference(manager, typeRef));
baseTypeName = typeRef.BaseType;
if (t != null && !(t.IsInterface)) {
baseType = t;
break;
}
}
if (baseType == null) {
TraceError("Base type for type declaration {0} could not be loaded. Closest base type name: {1}", declaration.Name, baseTypeName);
Error(manager, SR.GetString(SR.SerializerTypeNotFound, baseTypeName), SR.SerializerTypeNotFound);
}
if (TypeDescriptor.GetReflectionType(baseType).IsAbstract) {
TraceError("Base type {0} is abstract, which isn't allowed", baseType.FullName);
Error(manager, SR.GetString(SR.SerializerTypeAbstract, baseType.FullName), SR.SerializerTypeAbstract);
}
ResolveNameEventHandler onResolveName = new ResolveNameEventHandler(OnResolveName);
manager.ResolveName += onResolveName;
rootObject = manager.CreateInstance(baseType, null, declaration.Name, true);
// Now that we have the root object, we create a nametable and fill it with member declarations.
_nameTable = new HybridDictionary(declaration.Members.Count, caseInsensitive);
_statementTable = new Dictionary(declaration.Members.Count);
Dictionary names = new Dictionary();
RootContext rootCxt = new RootContext(new CodeThisReferenceExpression(), rootObject);
manager.Context.Push(rootCxt);
try {
StringComparison compare = caseInsensitive ? StringComparison.OrdinalIgnoreCase : StringComparison.Ordinal;
foreach (CodeTypeMember typeMember in declaration.Members) {
CodeMemberField member = typeMember as CodeMemberField;
if (member != null) {
if (!string.Equals(member.Name, declaration.Name, compare)) {
// always skip members with the same name as the type -- because that's the name
// we use when we resolve "base" and "this" items...
_nameTable[member.Name] = member;
if (member.Type != null && !string.IsNullOrEmpty(member.Type.BaseType)) {
names[member.Name] = GetTypeNameFromCodeTypeReference(manager, member.Type);
}
}
}
}
CodeMemberMethod[] methods = GetInitializeMethods(manager, declaration);
if (methods == null) {
throw new InvalidOperationException();
}
Trace("Members to deserialize: {0}", _nameTable.Keys.Count);
Trace("Methods to deserialize: {0}", methods.Length);
TraceWarningIf(methods.Length == 0, "Serializer did not find any methods to deserialize.");
// Walk through all of our methods and search for local variables. These guys get added to our
// nametable too.
foreach(CodeMemberMethod method in methods) {
foreach (CodeStatement statement in method.Statements) {
CodeVariableDeclarationStatement local = statement as CodeVariableDeclarationStatement;
if (local != null) {
_nameTable[local.Name] = statement;
}
}
}
// The name table should come pre-populated with our root expression.
_nameTable[declaration.Name] = rootCxt.Expression;
// We fill a "statement table" for everything in our init methods. This statement
// table is a dictionary whose keys contain object names and whose values contain
// a statement collection of all statements with a LHS resolving to an object
// by that name. If supportGenerate is true, FillStatementTable will skip methods
// that are marked with the tag "GeneratedStatement".
foreach (CodeMemberMethod method in methods) {
FillStatementTable(manager, _statementTable, names, method.Statements, declaration.Name);
}
// Interesting problem. The CodeDom parser may auto generate statements
// that are associated with other methods. VB does this, for example, to
// create statements automatically for Handles clauses. The problem with
// this technique is that we will end up with statements that are related
// to variables that live solely in user code and not in InitializeComponent.
// We will attempt to construct instances of these objects with limited
// success. To guard against this, we check to see if the manager
// even supports this feature, and if it does, we must look out for
// these statements while filling the statement collections.
PropertyDescriptor supportGenerate = manager.Properties["SupportsStatementGeneration"];
if (supportGenerate != null && supportGenerate.PropertyType == typeof(bool) && ((bool)supportGenerate.GetValue(manager)) == true) {
// Ok, we must do the more expensive work of validating the statements we get.
foreach (string name in _nameTable.Keys) {
if (_statementTable.ContainsKey(name)) {
CodeStatementCollection statements = _statementTable[name];
bool acceptStatement = false;
foreach (CodeStatement statement in statements) {
object genFlag = statement.UserData["GeneratedStatement"];
if (genFlag == null || !(genFlag is bool) || !((bool)genFlag)) {
acceptStatement = true;
break;
}
}
if (!acceptStatement) {
_statementTable.Remove(name);
}
}
}
}
// Design time properties must be resolved before runtime properties to make
// sure that properties like "language" get established before we need to read
// values out the resource bundle.
//
Trace("--------------------------------------------------------------------");
Trace(" Beginning deserialization of {0} (design time)", declaration.Name);
Trace("--------------------------------------------------------------------");
// Deserialize design time properties for the root component.
DeserializePropertiesFromResources(manager, rootObject, _designTimeFilter);
// sort by the order so we deserialize in the same order the objects
// were decleared in.
OrderedCodeStatementCollection[] statementArray = new OrderedCodeStatementCollection[_statementTable.Count];
_statementTable.Values.CopyTo(statementArray, 0);
Array.Sort(statementArray, StatementOrderComparer.Default);
// make sure we have fully deserialized everything that is referenced in the statement table.
// Skip the root object for last
OrderedCodeStatementCollection rootStatements = null;
foreach (OrderedCodeStatementCollection statements in statementArray) {
if (statements.Name.Equals(declaration.Name)) {
rootStatements = statements;
}
else {
DeserializeName(manager, statements.Name, statements);
}
}
if (rootStatements != null) {
DeserializeName(manager, rootStatements.Name, rootStatements);
}
}
finally {
_nameTable = null;
_statementTable = null;
Debug.Assert(manager.Context.Current == rootCxt, "Context stack corrupted");
manager.ResolveName -= onResolveName;
manager.Context.Pop();
}
}
return rootObject;
}
///
/// This takes the given name and deserializes it from our name table. Before blindly
/// deserializing it checks the contents of the name table to see if the object already
/// exists within it. We do this because deserializing one object may call back
/// into us through OnResolveName and deserialize another.
///
[System.Diagnostics.CodeAnalysis.SuppressMessage("Microsoft.Security", "CA2102:CatchNonClsCompliantExceptionsInGeneralHandlers")]
private object DeserializeName(IDesignerSerializationManager manager, string name, CodeStatementCollection statements) {
object value = null;
using (TraceScope("RootCodeDomSerializer::DeserializeName")) {
// If the name we're looking for isn't in our dictionary, we return null. It is up to the caller
// to decide if this is an error or not.
//
value = _nameTable[name];
CodeObject codeObject = value as CodeObject;
string typeName = null;
CodeMemberField field = null;
TraceIf(codeObject == null, "Name already deserialized. Type: {0}", (value == null ? "(null)" : value.GetType().Name));
if (codeObject != null) {
// If we fail, don't return a CodeDom element to the caller! Also
// clear out our nametable entry here -- A badly written serializer may cause a recursion here, and
// we want to stop it.
//
value = null;
_nameTable[name] = null;
// What kind of code object is this?
//
Trace("CodeDom type: {0}", codeObject.GetType().Name);
CodeVariableDeclarationStatement declaration = codeObject as CodeVariableDeclarationStatement;
if (declaration != null) {
typeName = GetTypeNameFromCodeTypeReference(manager, declaration.Type);
}
else {
field = codeObject as CodeMemberField;
if (field != null) {
typeName = GetTypeNameFromCodeTypeReference(manager, field.Type);
}
else {
CodeExpression exp = codeObject as CodeExpression;
RootContext rootCxt = manager.Context[typeof(RootContext)] as RootContext;
if (rootCxt != null && exp != null && rootCxt.Expression == exp) {
value = rootCxt.Value;
typeName = TypeDescriptor.GetClassName(value);
}
else {
Debug.Fail("Unrecognized code object in nametable.");
}
}
}
}
else if (value == null) {
// See if the container has this object. This may be necessary for
// visual inheritance.
IContainer container = (IContainer)manager.GetService(typeof(IContainer));
if (container != null) {
Trace("Try to get the type name from the container: {0}", name);
IComponent comp = container.Components[name];
if (comp != null) {
typeName = comp.GetType().FullName;
// we had to go to the host here, so there isn't a nametable entry here --
// push in the component here so we don't accidentally recurse when
// we try to deserialize this object.
//
_nameTable[name] = comp;
}
}
}
if (typeName != null) {
// Default case -- something that needs to be deserialized
//
Type type = manager.GetType(typeName);
if (type == null) {
TraceError("Type does not exist: {0}", typeName);
manager.ReportError(new CodeDomSerializerException(SR.GetString(SR.SerializerTypeNotFound, typeName), manager));
}
else {
if (statements == null && _statementTable.ContainsKey(name)) {
statements = _statementTable[name];
}
if (statements != null && statements.Count > 0) {
CodeDomSerializer serializer = GetSerializer(manager, type);
if (serializer == null) {
// We report this as an error. This indicates that there are code statements
// in initialize component that we do not know how to load.
//
TraceError("Type referenced in init method has no serializer: {0}", type.Name);
manager.ReportError(new CodeDomSerializerException(SR.GetString(SR.SerializerNoSerializerForComponent, type.FullName), manager));
}
else {
Trace("--------------------------------------------------------------------");
Trace(" Beginning deserialization of {0}", name);
Trace("--------------------------------------------------------------------");
try {
value = serializer.Deserialize(manager, statements);
// Search for a modifiers property, and set it.
//
if (value != null && field != null) {
PropertyDescriptor prop = TypeDescriptor.GetProperties(value)["Modifiers"];
if (prop != null && prop.PropertyType == typeof(MemberAttributes)) {
MemberAttributes modifiers = field.Attributes & MemberAttributes.AccessMask;
prop.SetValue(value, modifiers);
}
}
_nameTable[name] = value;
}
catch (Exception ex) {
manager.ReportError(ex);
}
}
}
}
}
}
return value;
}
///
/// This method returns the method to emit all of the initialization code to for the given member.
/// The default implementation returns an empty constructor.
///
protected virtual CodeMemberMethod GetInitializeMethod(IDesignerSerializationManager manager, CodeTypeDeclaration declaration, object value) {
if (manager == null) {
throw new ArgumentNullException("manager");
}
if (declaration == null) {
throw new ArgumentNullException("declaration");
}
if (value == null) {
throw new ArgumentNullException("value");
}
CodeConstructor ctor = declaration.UserData[_initMethodKey] as CodeConstructor;
if (ctor == null) {
ctor = new CodeConstructor();
declaration.UserData[_initMethodKey] = ctor;
}
return ctor;
}
///
/// This method returns an array of methods that need to be interpreted during deserialization.
/// The default implementation returns a single element array with the constructor in it.
///
protected virtual CodeMemberMethod[] GetInitializeMethods(IDesignerSerializationManager manager, CodeTypeDeclaration declaration) {
if (manager == null) {
throw new ArgumentNullException("manager");
}
if (declaration == null) {
throw new ArgumentNullException("declaration");
}
foreach (CodeTypeMember member in declaration.Members) {
CodeConstructor ctor = member as CodeConstructor;
if (ctor != null && ctor.Parameters.Count == 0) {
return new CodeMemberMethod[] { ctor };
}
}
return new CodeMemberMethod[0];
}
///
/// Called by the serialization manager to resolve a name to an object.
///
private void OnResolveName(object sender, ResolveNameEventArgs e) {
Debug.Assert(_nameTable != null, "OnResolveName called and we are not deserializing!");
using (TraceScope("RootCodeDomSerializer::OnResolveName")) {
Trace("Name: {0}", e.Name);
// If someone else already found a value, who are we to complain?
//
if (e.Value != null) {
TraceWarning("Another name resolver has already found the value for {0}.", e.Name);
}
else {
IDesignerSerializationManager manager = (IDesignerSerializationManager)sender;
e.Value = DeserializeName(manager, e.Name, null);
}
}
}
///
/// This method serializes the given root object and optional collection of members to create a
/// new type definition. The members collection can be null or empty. If it contains values,
/// these values will be serialized. Values themselves may decide to serialize as either member
/// variables or local variables. This determination is done by looking for an extender property
/// on the object called GenerateMember. If true, a member is generated. Otherwise, a local
/// variable is generated. For convenience, the members collection can contain the root object.
/// In this case the root object will not also be added as a member or local variable. The return
/// value is a CodeTypeDeclaration that defines the root object. The name of the type will be taken
/// from the root object�s name, if it was a named object. If not, a name will be fabricated from the
/// simple type name of the root class.
///
/// The default implementation of Serialize performs the following tasks:
///
/// � Context Seeding. The serialization context will be �seeded� with data including the RootContext,
/// and CodeTypeDeclaration.
/// � Member Serialization. Next Serialize will walk all of the members and call SerializeToExpression.
/// Because serialization is done opportunistically in SerializeToExpression, this ensures that we do
/// not serialize twice.
/// � Root Seralization. Finally, the root object is serialized and its statements are added to the statement
/// collection.
/// � Statement Integration. After all objects have been serialized the Serialize method orders the statements
/// and adds them to a method returned from GetInitializeMethod. Finally, a constructor is fabricated that calls
/// all of the methods returned from GetInitializeMethod (this step is skipped for cases when GetInitializeMethod
/// returns a constructor.
///
public virtual CodeTypeDeclaration Serialize(IDesignerSerializationManager manager, object root, ICollection members) {
if (manager == null) {
throw new ArgumentNullException("manager");
}
if (root == null) {
throw new ArgumentNullException("root");
}
Trace("TypeCodeDomSerializer::Serialize");
// As a type serializer we are responsible for creating the type declaration. Other
// serializers may access this type declaration and add members to it, so we need
// to place it on the context stack. The serialization process also looks at the
// root context to see if there is a root component. The root context is also used
// by the serializers to add statement collections for serialized components.
CodeTypeDeclaration docType = new CodeTypeDeclaration(manager.GetName(root));
CodeThisReferenceExpression thisRef = new CodeThisReferenceExpression();
RootContext rootCxt = new RootContext(thisRef, root);
StatementContext statementCxt = new StatementContext();
// Populate the statement context with a list of members we'd like to see
// statements for
statementCxt.StatementCollection.Populate(root);
if (members != null) {
statementCxt.StatementCollection.Populate(members);
}
docType.BaseTypes.Add(root.GetType());
manager.Context.Push(docType);
manager.Context.Push(rootCxt);
manager.Context.Push(statementCxt);
try {
// Do each component, skipping us, since we handle our own serialization.
// This looks really sweet, but is it worth it? We take the
// perf hit of a quicksort + the allocation overhead of 4
// bytes for each component. Profiles show this as a 2%
// cost for a form with 100 controls. Let's meet the perf
// goals first, then consider uncommenting this.
//
//ArrayList sortedComponents = new ArrayList(components);
//sortedComponents.Sort(ComponentComparer.Default);
//components = sortedComponents;
if (members != null) {
foreach (object member in members) {
if (member != root) {
#if DEBUG
string memberName = manager.GetName(member);
if (memberName == null) memberName = member.ToString();
Trace("--------------------------------------------------------------------");
Trace(" Beginning serialization of {0}", memberName);
Trace("--------------------------------------------------------------------");
#endif
// This returns an expression for the object, if possible. We ignore that. Besides returning
// an expression, it fills the statement table in the statement context and we're very interested
// in that. After serializing everything we will walk over the statement context's statement table.
// We will validate that each and every member we've serialized has a presence in the
// statement table. If it doesn't, that's an error in the member's serializer.
SerializeToExpression(manager, member);
}
}
}
// Now do the root object last.
#if DEBUG
string rootName = manager.GetName(root);
if (rootName == null) rootName = root.ToString();
Trace("--------------------------------------------------------------------");
Trace(" Bedginning serialization of root object {0}", rootName);
Trace("--------------------------------------------------------------------");
#endif
// Now, do the root object last.
SerializeToExpression(manager, root);
// After serializing everything we will walk over the statement context's statement table.
// We will validate that each and every member we've serialized has a presence in the
// statement table. If it doesn't, that's an error in the member's serializer.
IntegrateStatements(manager, root, members, statementCxt, docType);
}
finally {
Debug.Assert(manager.Context.Current == statementCxt, "Somebody messed up our context stack");
manager.Context.Pop();
manager.Context.Pop();
manager.Context.Pop();
}
Trace("--------------------------------------------------------------------");
Trace(" Generated code for ", manager.GetName(root));
Trace("--------------------------------------------------------------------");
Trace(docType);
return docType;
}
///
/// Takes the statement context and integrates all the statements into the correct methods. Then, those methods are added to the code type declaration.
///
private void IntegrateStatements(IDesignerSerializationManager manager, object root, ICollection members, StatementContext statementCxt, CodeTypeDeclaration typeDecl) {
Dictionary methodMapIndex = new Dictionary();
List methodMap = new List();
// Go through all of our members and root object and fish out matching statement context
// info for each object. The statement context will probably contain more objects than
// our members, because each object that returned a statement collection was placed in the
// context. That's fine, because for each major component we serialized it pushed its
// statement collection on the context stack and statements were added there as well, forming
// a comlete graph.
if (members != null) {
foreach(object member in members) {
if (member != root) { // always skip the root and do it last
CodeStatementCollection statements = statementCxt.StatementCollection[member];
if (statements != null) {
CodeMemberMethod method = GetInitializeMethod(manager, typeDecl, member);
if (method == null) {
throw new InvalidOperationException();
}
CodeMethodMap map;
int mapIndex;
if (methodMapIndex.TryGetValue(method.Name, out mapIndex)) {
map = methodMap[mapIndex];
}
else {
map = new CodeMethodMap(method);
methodMap.Add(map);
methodMapIndex[method.Name] = methodMap.Count - 1;
}
if (statements.Count > 0) {
map.Add(statements);
}
}
}
}
}
// Finally, do the same thing for the root object.
CodeStatementCollection rootStatements = statementCxt.StatementCollection[root];
if (rootStatements != null) {
CodeMemberMethod rootMethod = GetInitializeMethod(manager, typeDecl, root);
if (rootMethod == null) {
throw new InvalidOperationException();
}
CodeMethodMap rootMap;
int rootMapIndex;
if (methodMapIndex.TryGetValue(rootMethod.Name, out rootMapIndex)) {
rootMap = methodMap[rootMapIndex];
}
else {
rootMap = new CodeMethodMap(rootMethod);
methodMap.Add(rootMap);
methodMapIndex[rootMethod.Name] = methodMap.Count - 1;
}
if (rootStatements.Count > 0) {
rootMap.Add(rootStatements);
}
}
// Final step -- walk through all of the sections and emit them to the type declaration.
foreach (CodeMethodMap map in methodMap) {
map.Combine();
typeDecl.Members.Add(map.Method);
Trace("...generated {0} statements into method {1}", map.Method.Statements.Count, map.Method.Name);
}
}
#region OrderedStatementsCollection Class
private class StatementOrderComparer : IComparer {
public static readonly StatementOrderComparer Default = new StatementOrderComparer();
private StatementOrderComparer() {
}
public int Compare(object left, object right) {
OrderedCodeStatementCollection cscLeft = left as OrderedCodeStatementCollection;
OrderedCodeStatementCollection cscRight = right as OrderedCodeStatementCollection;
if (left == null) {
return 1;
}
else if (right == null) {
return -1;
}
else if (right == left) {
return 0;
}
return cscLeft.Order - cscRight.Order;
}
}
#endregion
}
}
// File provided for Reference Use Only by Microsoft Corporation (c) 2007.
// Copyright (c) Microsoft Corporation. All rights reserved.
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