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package org.omg.DynamicAny;


/**
* org/omg/DynamicAny/DynAnyPOA.java .
* Generated by the IDL-to-Java compiler (portable), version "3.2"
* from /home/tomek/workspace/openjdk-orb/src/share/classes/org/omg/DynamicAny/DynamicAny.idl
* Wednesday, February 1, 2023 4:15:32 PM CET
*/


/**
    * Any values can be dynamically interpreted (traversed) and constructed through DynAny objects.
    * A DynAny object is associated with a data value which corresponds to a copy of the value
    * inserted into an any.
    * 

A DynAny object may be viewed as an ordered collection of component DynAnys. * For DynAnys representing a basic type, such as long, or a type without components, * such as an empty exception, the ordered collection of components is empty. * Each DynAny object maintains the notion of a current position into its collection * of component DynAnys. The current position is identified by an index value that runs * from 0 to n-1, where n is the number of components. * The special index value -1 indicates a current position that points nowhere. * For values that cannot have a current position (such as an empty exception), * the index value is fixed at -1. * If a DynAny is initialized with a value that has components, the index is initialized to 0. * After creation of an uninitialized DynAny (that is, a DynAny that has no value but a TypeCode * that permits components), the current position depends on the type of value represented by * the DynAny. (The current position is set to 0 or -1, depending on whether the new DynAny * gets default values for its components.) *

The iteration operations rewind, seek, and next can be used to change the current position * and the current_component operation returns the component at the current position. * The component_count operation returns the number of components of a DynAny. * Collectively, these operations enable iteration over the components of a DynAny, for example, * to (recursively) examine its contents. *

A constructed DynAny object is a DynAny object associated with a constructed type. * There is a different interface, inheriting from the DynAny interface, associated with * each kind of constructed type in IDL (fixed, enum, struct, sequence, union, array, * exception, and value type). *

A constructed DynAny object exports operations that enable the creation of new DynAny objects, * each of them associated with a component of the constructed data value. * As an example, a DynStruct is associated with a struct value. This means that the DynStruct * may be seen as owning an ordered collection of components, one for each structure member. * The DynStruct object exports operations that enable the creation of new DynAny objects, * each of them associated with a member of the struct. *

If a DynAny object has been obtained from another (constructed) DynAny object, * such as a DynAny representing a structure member that was created from a DynStruct, * the member DynAny is logically contained in the DynStruct. * Calling an insert or get operation leaves the current position unchanged. * Destroying a top-level DynAny object (one that was not obtained as a component of another DynAny) * also destroys any component DynAny objects obtained from it. * Destroying a non-top level DynAny object does nothing. * Invoking operations on a destroyed top-level DynAny or any of its descendants raises OBJECT_NOT_EXIST. * If the programmer wants to destroy a DynAny object but still wants to manipulate some component * of the data value associated with it, then he or she should first create a DynAny for the component * and, after that, make a copy of the created DynAny object. *

The behavior of DynAny objects has been defined in order to enable efficient implementations * in terms of allocated memory space and speed of access. DynAny objects are intended to be used * for traversing values extracted from anys or constructing values of anys at runtime. * Their use for other purposes is not recommended. *

Insert and get operations are necessary to handle basic DynAny objects * but are also helpful to handle constructed DynAny objects. * Inserting a basic data type value into a constructed DynAny object * implies initializing the current component of the constructed data value * associated with the DynAny object. For example, invoking insert_boolean on a * DynStruct implies inserting a boolean data value at the current position * of the associated struct data value. * A type is consistent for inserting or extracting a value if its TypeCode is equivalent to * the TypeCode contained in the DynAny or, if the DynAny has components, is equivalent to the TypeCode * of the DynAny at the current position. *

DynAny and DynAnyFactory objects are intended to be local to the process in which they are * created and used. This means that references to DynAny and DynAnyFactory objects cannot be exported * to other processes, or externalized with ORB.object_to_string(). * If any attempt is made to do so, the offending operation will raise a MARSHAL system exception. * Since their interfaces are specified in IDL, DynAny objects export operations defined in the standard * org.omg.CORBA.Object interface. However, any attempt to invoke operations exported through the Object * interface may raise the standard NO_IMPLEMENT exception. * An attempt to use a DynAny object with the DII may raise the NO_IMPLEMENT exception. */ public abstract class DynAnyPOA extends org.omg.PortableServer.Servant implements org.omg.DynamicAny.DynAnyOperations, org.omg.CORBA.portable.InvokeHandler { // Constructors private static java.util.Hashtable _methods = new java.util.Hashtable (); static { _methods.put ("type", new java.lang.Integer (0)); _methods.put ("assign", new java.lang.Integer (1)); _methods.put ("from_any", new java.lang.Integer (2)); _methods.put ("to_any", new java.lang.Integer (3)); _methods.put ("equal", new java.lang.Integer (4)); _methods.put ("destroy", new java.lang.Integer (5)); _methods.put ("copy", new java.lang.Integer (6)); _methods.put ("insert_boolean", new java.lang.Integer (7)); _methods.put ("insert_octet", new java.lang.Integer (8)); _methods.put ("insert_char", new java.lang.Integer (9)); _methods.put ("insert_short", new java.lang.Integer (10)); _methods.put ("insert_ushort", new java.lang.Integer (11)); _methods.put ("insert_long", new java.lang.Integer (12)); _methods.put ("insert_ulong", new java.lang.Integer (13)); _methods.put ("insert_float", new java.lang.Integer (14)); _methods.put ("insert_double", new java.lang.Integer (15)); _methods.put ("insert_string", new java.lang.Integer (16)); _methods.put ("insert_reference", new java.lang.Integer (17)); _methods.put ("insert_typecode", new java.lang.Integer (18)); _methods.put ("insert_longlong", new java.lang.Integer (19)); _methods.put ("insert_ulonglong", new java.lang.Integer (20)); _methods.put ("insert_wchar", new java.lang.Integer (21)); _methods.put ("insert_wstring", new java.lang.Integer (22)); _methods.put ("insert_any", new java.lang.Integer (23)); _methods.put ("insert_dyn_any", new java.lang.Integer (24)); _methods.put ("insert_val", new java.lang.Integer (25)); _methods.put ("get_boolean", new java.lang.Integer (26)); _methods.put ("get_octet", new java.lang.Integer (27)); _methods.put ("get_char", new java.lang.Integer (28)); _methods.put ("get_short", new java.lang.Integer (29)); _methods.put ("get_ushort", new java.lang.Integer (30)); _methods.put ("get_long", new java.lang.Integer (31)); _methods.put ("get_ulong", new java.lang.Integer (32)); _methods.put ("get_float", new java.lang.Integer (33)); _methods.put ("get_double", new java.lang.Integer (34)); _methods.put ("get_string", new java.lang.Integer (35)); _methods.put ("get_reference", new java.lang.Integer (36)); _methods.put ("get_typecode", new java.lang.Integer (37)); _methods.put ("get_longlong", new java.lang.Integer (38)); _methods.put ("get_ulonglong", new java.lang.Integer (39)); _methods.put ("get_wchar", new java.lang.Integer (40)); _methods.put ("get_wstring", new java.lang.Integer (41)); _methods.put ("get_any", new java.lang.Integer (42)); _methods.put ("get_dyn_any", new java.lang.Integer (43)); _methods.put ("get_val", new java.lang.Integer (44)); _methods.put ("seek", new java.lang.Integer (45)); _methods.put ("rewind", new java.lang.Integer (46)); _methods.put ("next", new java.lang.Integer (47)); _methods.put ("component_count", new java.lang.Integer (48)); _methods.put ("current_component", new java.lang.Integer (49)); } public org.omg.CORBA.portable.OutputStream _invoke (String $method, org.omg.CORBA.portable.InputStream in, org.omg.CORBA.portable.ResponseHandler $rh) { throw new org.omg.CORBA.BAD_OPERATION(); } // _invoke // Type-specific CORBA::Object operations private static String[] __ids = { "IDL:omg.org/DynamicAny/DynAny:1.0"}; public String[] _all_interfaces (org.omg.PortableServer.POA poa, byte[] objectId) { return (String[])__ids.clone (); } public DynAny _this() { return DynAnyHelper.narrow( super._this_object()); } public DynAny _this(org.omg.CORBA.ORB orb) { return DynAnyHelper.narrow( super._this_object(orb)); } } // class DynAnyPOA





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