object DeserializeDictionary(object inInstance, IKey inKey, Type declaredType, int inInheriteDeep, int inStructDeep, ILogPrinter inLogger)
{
Type[] gen_args = declaredType.GetGenericArguments();
if (gen_args.Length < 2)
{
LogError(inLogger, string.Format("DeserializeDictionary: Generic Arguments are None. Type {0}", declaredType.Name));
return(inInstance);
}
object instance = inInstance;
// Instantiate if necessary
if (instance == null)
{
instance = _reflectionProvider.Instantiate(declaredType, inLogger);
}
var dictionary = instance as IDictionary;
Type keyDeclaredType = gen_args[0];
Type valueDeclaredType = gen_args[1];
IKey tree_key = inKey.GetChild("BaseDictionary");
if (tree_key == null)
{
tree_key = inKey;
}
for (int i = 0; i < tree_key.GetChildCount(); ++i)
{
IKey sub_key = tree_key.GetChild(i);
object dic_key;
if (!ReflectionHelper.StringToAtomicValue(sub_key.GetName(), keyDeclaredType, out dic_key, _reflectionProvider, inLogger))
{
LogError(inLogger, string.Format("SubKey {0} [{3}] for dictionary with key type {1} can't convert value {2}",
tree_key, keyDeclaredType.Name, sub_key.GetName(), tree_key.GetPath()));
}
else
{
object dic_value = DeserializeInternal(null, sub_key, valueDeclaredType, 0, inStructDeep + 1, inLogger);
if (dictionary.Contains(dic_key))
{
dictionary.Remove(dic_key);
}
dictionary.Add(dic_key, dic_value);
}
}
return(instance);
}
/// <summary>
/// <para>
/// Finds the first <see cref="IKey" /> that is mapped to the same constraint in a shared table-like object.
/// </para>
/// <para>
/// This method is typically used by database providers (and other extensions). It is generally
/// not used in application code.
/// </para>
/// </summary>
/// <param name="key"> The key. </param>
/// <param name="storeObject"> The identifier of the containing store object. </param>
/// <returns> The key found, or <see langword="null" /> if none was found.</returns>
public static IKey FindSharedObjectRootKey([NotNull] this IKey key, StoreObjectIdentifier storeObject)
{
Check.NotNull(key, nameof(key));
var keyName = key.GetName(storeObject);
var rootKey = key;
// Limit traversal to avoid getting stuck in a cycle (validation will throw for these later)
// Using a hashset is detrimental to the perf when there are no cycles
for (var i = 0; i < Metadata.Internal.RelationalEntityTypeExtensions.MaxEntityTypesSharingTable; i++)
{
var linkedKey = rootKey.DeclaringEntityType
.FindRowInternalForeignKeys(storeObject)
.SelectMany(fk => fk.PrincipalEntityType.GetKeys())
.FirstOrDefault(k => k.GetName(storeObject) == keyName);
if (linkedKey == null)
{
break;
}
rootKey = linkedKey;
}
return(rootKey == key ? null : rootKey);
}
/// <summary>
/// This is an internal API that supports the Entity Framework Core infrastructure and not subject to
/// the same compatibility standards as public APIs. It may be changed or removed without notice in
/// any release. You should only use it directly in your code with extreme caution and knowing that
/// doing so can result in application failures when updating to a new Entity Framework Core release.
/// </summary>
public static bool AreCompatible(
[NotNull] this IKey key,
[NotNull] IKey duplicateKey,
StoreObjectIdentifier storeObject,
bool shouldThrow)
{
if (!key.Properties.Select(p => p.GetColumnName(storeObject))
.SequenceEqual(duplicateKey.Properties.Select(p => p.GetColumnName(storeObject))))
{
if (shouldThrow)
{
throw new InvalidOperationException(
RelationalStrings.DuplicateKeyColumnMismatch(
key.Properties.Format(),
key.DeclaringEntityType.DisplayName(),
duplicateKey.Properties.Format(),
duplicateKey.DeclaringEntityType.DisplayName(),
key.DeclaringEntityType.GetSchemaQualifiedTableName(),
key.GetName(storeObject),
key.Properties.FormatColumns(storeObject),
duplicateKey.Properties.FormatColumns(storeObject)));
}
return(false);
}
return(true);
}
/// <summary>
/// This is an internal API that supports the Entity Framework Core infrastructure and not subject to
/// the same compatibility standards as public APIs. It may be changed or removed without notice in
/// any release. You should only use it directly in your code with extreme caution and knowing that
/// doing so can result in application failures when updating to a new Entity Framework Core release.
/// </summary>
public static bool AreCompatibleForSqlServer(
[NotNull] this IKey key,
[NotNull] IKey duplicateKey,
StoreObjectIdentifier storeObject,
bool shouldThrow)
{
if (key.IsClustered(storeObject)
!= duplicateKey.IsClustered(storeObject))
{
if (shouldThrow)
{
throw new InvalidOperationException(
SqlServerStrings.DuplicateKeyMismatchedClustering(
key.Properties.Format(),
key.DeclaringEntityType.DisplayName(),
duplicateKey.Properties.Format(),
duplicateKey.DeclaringEntityType.DisplayName(),
storeObject.DisplayName(),
key.GetName(storeObject)));
}
return(false);
}
return(true);
}
/// <summary>
/// This is an internal API that supports the Entity Framework Core infrastructure and not subject to
/// the same compatibility standards as public APIs. It may be changed or removed without notice in
/// any release. You should only use it directly in your code with extreme caution and knowing that
/// doing so can result in application failures when updating to a new Entity Framework Core release.
/// </summary>
public static bool AreCompatibleForSqlServer(
[NotNull] this IKey key,
[NotNull] IKey duplicateKey,
[NotNull] string tableName,
[CanBeNull] string schema,
bool shouldThrow)
{
if (key.IsClustered(tableName, schema)
!= duplicateKey.IsClustered(tableName, schema))
{
if (shouldThrow)
{
throw new InvalidOperationException(
SqlServerStrings.DuplicateKeyMismatchedClustering(
key.Properties.Format(),
key.DeclaringEntityType.DisplayName(),
duplicateKey.Properties.Format(),
duplicateKey.DeclaringEntityType.DisplayName(),
tableName,
key.GetName(tableName, schema)));
}
return(false);
}
return(true);
}
bool CheckNameForChild(string inName)
{
for (int i = 0; i < _keys.Count; i++)
{
IKey k = _keys[i];
if (string.Equals(k.GetName(), inName, StringComparison.InvariantCulture))
{
return(false);
}
}
return(true);
}
bool CheckNameByParent(string inName)
{
if (Parent == null)
{
return(true);
}
for (int i = 0; i < Parent._keys.Count; i++)
{
IKey k = Parent._keys[i];
if (string.Equals(k.GetName(), inName, StringComparison.InvariantCulture))
{
return(false);
}
}
return(true);
}
void AddToTree(IKey key, TreeNodeCollection nc)
{
StringBuilder sb = new StringBuilder();
for (int i = 0; i < key.GetValuesCount(); i++)
{
IKeyValue value = key.GetValue(i);
string val_comments = string.Empty;
if (!string.IsNullOrEmpty(value.Comments))
{
val_comments = string.Format("[//{0}]", value.Comments);
}
sb.AppendFormat("{0}{1}, ", value, val_comments);
}
string arr_flag = string.Empty;
if (key.IsArrayKey())
{
arr_flag = "[a]";
}
string key_comments = string.Empty;
if (!string.IsNullOrEmpty(key.Comments))
{
key_comments = string.Format(" //{0}", key.Comments);
}
TreeNode tn = new TreeNode(string.Format("{0}{1}: {2}{3}", key.GetName(), arr_flag, sb, key_comments));
nc.Add(tn);
for (int i = 0; i < key.GetChildCount(); i++)
{
IKey el = key.GetChild(i);
AddToTree(el, tn.Nodes);
}
}
EKeyOpResult IsKeyAddable(IKey inNewChild)
{
if (!(inNewChild is CKey))
{
return(EKeyOpResult.UnnativeKey);
}
for (int i = 0; i < _keys.Count; i++)
{
IKey k = _keys[i];
if (k == inNewChild)
{
return(EKeyOpResult.AlreadyPresent);
}
if (string.Equals(k.GetName(), inNewChild.GetName(), StringComparison.InvariantCulture))
{
return(EKeyOpResult.DublicateName);
}
}
return(EKeyOpResult.OK);
}
private void GenerateKey(IKey key, IEntityType entityType, bool useDataAnnotations)
{
if (key == null)
{
var line = new List <string>
{
$".{nameof(EntityTypeBuilder.HasNoKey)}()"
};
this.AppendMultiLineFluentApi(entityType, line);
return;
}
var annotations = key.GetAnnotations().ToList();
var explicitName = key.GetName() != key.GetDefaultName();
RemoveAnnotation(ref annotations, RelationalAnnotationNames.Name);
if (key.Properties.Count == 1 &&
annotations.Count == 0)
{
if (key is Key concreteKey &&
key.Properties.SequenceEqual(
KeyDiscoveryConvention.DiscoverKeyProperties(
concreteKey.DeclaringEntityType,
concreteKey.DeclaringEntityType.GetProperties())))
{
return;
}
if (!explicitName &&
useDataAnnotations)
{
return;
}
}
var lines = new List <string>
{
$".{nameof(EntityTypeBuilder.HasKey)}(e => {GenerateLambdaToKey(key.Properties, "e")})"
};
if (explicitName)
{
lines.Add(
$".{nameof(RelationalKeyBuilderExtensions.HasName)}" +
$"({this._code.Literal(key.GetName())})");
}
var annotationsToRemove = new List <IAnnotation>();
foreach (var annotation in annotations)
{
if (annotation.Value == null ||
this._annotationCodeGenerator.IsHandledByConvention(key, annotation))
{
annotationsToRemove.Add(annotation);
}
else
{
var methodCall = this._annotationCodeGenerator.GenerateFluentApi(key, annotation);
if (methodCall != null)
{
lines.Add(this._code.Fragment(methodCall));
annotationsToRemove.Add(annotation);
}
}
}
lines.AddRange(this.GenerateAnnotations(annotations.Except(annotationsToRemove)));
this.AppendMultiLineFluentApi(key.DeclaringEntityType, lines);
}
private void GenerateKey(IKey key, IEntityType entityType, bool useDataAnnotations, IndentedStringBuilder sb)
{
if (key == null)
{
if (!useDataAnnotations)
{
var line = new List <string> {
$".{nameof(EntityTypeBuilder.HasNoKey)}()"
};
AppendMultiLineFluentApi(entityType, line, sb);
}
return;
}
var annotations = AnnotationCodeGenerator
.FilterIgnoredAnnotations(key.GetAnnotations())
.ToDictionary(a => a.Name, a => a);
AnnotationCodeGenerator.RemoveAnnotationsHandledByConventions(key, annotations);
var explicitName = key.GetName() != key.GetDefaultName();
annotations.Remove(RelationalAnnotationNames.Name);
if (key.Properties.Count == 1 &&
annotations.Count == 0)
{
if (key is Key concreteKey &&
key.Properties.SequenceEqual(
KeyDiscoveryConvention.DiscoverKeyProperties(
concreteKey.DeclaringEntityType,
concreteKey.DeclaringEntityType.GetProperties())))
{
return;
}
if (!explicitName &&
useDataAnnotations)
{
return;
}
}
var lines = new List <string>
{
$".{nameof(EntityTypeBuilder.HasKey)}(e => {GenerateLambdaToKey(key.Properties, "e", EntityTypeTransformationService.TransformPropertyName)})"
};
if (explicitName)
{
lines.Add(
$".{nameof(RelationalKeyBuilderExtensions.HasName)}" +
$"({CSharpHelper.Literal(key.GetName())})");
}
lines.AddRange(
AnnotationCodeGenerator.GenerateFluentApiCalls(key, annotations).Select(m => CSharpHelper.Fragment(m))
.Concat(GenerateAnnotations(annotations.Values)));
AppendMultiLineFluentApi(key.DeclaringEntityType, lines, sb);
}
private string GetKeyName(IKey key) => key?.GetName();
/// <summary> /// Returns the key constraint name for this key. /// </summary> /// <param name="key"> The key. </param> /// <returns> The key constraint name for this key. </returns> public static string GetName([NotNull] this IKey key) => key.GetName(StoreObjectIdentifier.Table(key.DeclaringEntityType.GetTableName(), key.DeclaringEntityType.GetSchema()));
/// <summary> /// Returns the key constraint name for this key. /// </summary> /// <param name="key"> The key. </param> /// <returns> The key constraint name for this key. </returns> public static string GetName([NotNull] this IKey key) => key.GetName(key.DeclaringEntityType.GetTableName(), key.DeclaringEntityType.GetSchema());
public IEnumerable <Attribute> GetAnnotationContract(IRelationMetadata metadata)
{
IEntityType entity = this.entities.FirstOrDefault(e => e.ClrType == metadata.Type);
IEntityType parentEntity = this.entities.FirstOrDefault(e => e.ClrType == metadata.Parent?.Type);
IProperty property = parentEntity?.GetProperties().FirstOrDefault(p => p.Name == metadata.Member?.Name);
IAnnotation[] propertyAnnotations = property?.GetAnnotations().ToArray() ?? new IAnnotation[0];
#if NETSTANDARD2_0
IKey primaryKey = property?.GetContainingPrimaryKey();
#elif NETSTANDARD2_1 || NETCOREAPP3_0
IKey primaryKey = property?.FindContainingPrimaryKey();
#endif
IForeignKey[] foreignKeys = property?.GetContainingForeignKeys().ToArray() ?? new IForeignKey[0];
if (entity == null && property == null)
{
return(null);
}
#if NETSTANDARD2_0
string tableName = entity?.Relational()?.TableName;
string schemaName = entity?.Relational()?.Schema;
string columnName = property?.Relational()?.ColumnName;
string keyName = primaryKey?.Relational()?.Name;
#elif NETSTANDARD2_1 || NETCOREAPP3_0
string tableName = entity?.GetTableName() ?? entity?.GetDefaultTableName();
string schemaName = entity?.GetSchema() ?? entity?.GetDefaultSchema();
string columnName = property?.GetColumnName() ?? property?.GetDefaultColumnName();
string keyName = primaryKey?.GetName();
#endif
List <Attribute> annotations = new List <Attribute>();
if (tableName != null && schemaName != null)
{
annotations.Add(new TableAttribute(schemaName, tableName));
}
else if (tableName != null)
{
annotations.Add(new TableAttribute(tableName));
}
if (columnName != null)
{
annotations.Add(new ColumnAttribute(columnName));
}
if (propertyAnnotations.Any(a => a.Name == "SqlServer:ValueGenerationStrategy" && a.Value?.ToString() == "IdentityColumn"))
{
annotations.Add(new IdAttribute());
}
if (keyName != null)
{
int index = primaryKey.Properties.ToList().IndexOf(property);
annotations.Add(new KeyAttribute(keyName, index));
}
foreach (IForeignKey foreignKey in foreignKeys)
{
#if NETSTANDARD2_0
string principalName = foreignKey.PrincipalKey.Relational()?.Name;
string foreignName = foreignKey.Relational()?.Name;
int index = foreignKey.Properties.ToList().IndexOf(property);
#elif NETSTANDARD2_1 || NETCOREAPP3_0
string principalName = foreignKey.PrincipalKey.GetName();
string foreignName = foreignKey.GetConstraintName();
int index = foreignKey.Properties.ToList().IndexOf(property);
#endif
if (principalName != null)
{
annotations.Add(new RefAttribute(principalName, index, foreignName));
}
}
if (annotations.Any())
{
return(annotations);
}
return(null);
}
void SerializeClass(object instance, Type type, IKey inKey, int inInheriteDeep, ILogPrinter inLogger)
{
MethodInfo mi = type.GetMethod("SerializationToCscd", new Type[] { typeof(CascadeParser.IKey), typeof(CascadeParser.ILogPrinter) });
if (mi != null)
{
if (string.IsNullOrEmpty(inKey.GetName()))
{
inKey.SetName("Value");
}
mi.Invoke(instance, new object[] { inKey, inLogger });
return;
}
MemberInfo[] member_infos = _reflectionProvider.GetSerializableMembers(type);
foreach (MemberInfo memberInfo in member_infos)
{
object value = _reflectionProvider.GetValue(memberInfo, instance);
if (value == null)
{
continue;
}
SCustomMemberParams member_params = GetMemberParams(memberInfo);
if (member_params.DefaultValue != null)
{
if (member_params.DefaultValue.GetType() != value.GetType())
{
LogError(inLogger, string.Format("DefaultValue and member {2} of class {3} have difference types: {0} and {1}",
member_params.DefaultValue.GetType().Name,
value.GetType().Name,
member_params.Name,
type.Name));
}
else if (member_params.DefaultValue.Equals(value))
{
continue;
}
}
else if (ReflectionHelper.IsDefault(value, _reflectionProvider, inLogger))
{
continue;
}
IKey child = inKey.CreateChildKey(member_params.ChangedName);
Type real_type = value.GetType();
Type member_type = memberInfo.GetMemberType();
if (member_params.Converter != null && member_params.Converter.CanConvert(real_type))
{
member_params.Converter.WriteKey(child, value, inLogger);
}
else
{
Serialize(value, real_type, child, 0, inLogger);
}
// Write the runtime type if different (except nullables since they get unboxed)
if (real_type != member_type && !member_type.IsNullable())
{
IKey obj_type_key = child.CreateChildKey("RealObjectType");
obj_type_key.AddValue(real_type.FullName);
obj_type_key.AddValue(real_type.Assembly.FullName);
}
}
}