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/*
* Copyright 2004,2005 The Apache Software Foundation.
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef AXIS2_OP_CTX_H
#define AXIS2_OP_CTX_H
/**
* @file axis2_op_ctx.h
* @brief axis2 Message Context interface
*/
#include <axis2_defines.h>
#include <axis2_hash.h>
#include <axis2_env.h>
#include <axis2_msg_ctx.h>
#include <axis2_op.h>
#ifdef __cplusplus
extern "C"
{
#endif
/**
* @defgroup axis2_op_ctx Operation Context
* An op context represents a running "instance" of an op, which is
* represented by an axis2_op struct. This concept is needed to allow
* messages to be grouped into ops as in WSDL 2.0-speak ops are
* essentially arbitrary message exchange patterns. So as messages are being
* exchanged the op context remembers the state of where in the message
* exchange pattern it is in.
* <p/>
* The base implementation of op context
* supports MEPs which have one input message and/or one output message. That
* is, it supports the all the MEPs that are in the WSDL 2.0 specification. In
* order to support another MEP one must extend this struct.
* @ingroup axis2_core_context
* @{
*/
typedef struct axis2_op_ctx_ops axis2_op_ctx_ops_t;
typedef struct axis2_op_ctx axis2_op_ctx_t;
struct axis2_svc_ctx;
/**
* @brief Message Context ops struct
* Encapsulator struct for ops of axis2_op_ctx
*/
struct axis2_op_ctx_ops
{
axis2_ctx_t* (AXIS2_CALL *
get_base)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
axis2_status_t (AXIS2_CALL *
free)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
/**
* The method is used to do the intialization of the axis2_op_ctx
*/
axis2_status_t (AXIS2_CALL *
init)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env,
struct axis2_conf *conf);
/**
* @return Returns the op.
*/
struct axis2_op* (AXIS2_CALL *
get_op)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
/**
* Return the struct axis2_svc_ctx * in which this op_ctx lives.
*
* @return parent struct axis2_svc_ctx *
*/
struct axis2_svc_ctx* (AXIS2_CALL *
get_parent)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
/**
* When a new message is added to the <code>MEPContext</code> the logic
* should be included remove the MEPContext from the table in the
* <code>axis2_conf_ctx</code>. Example: IN_IN_OUT At the second IN
* message the MEPContext should be removed from the AxisOperation
*
* @param msgContext
*/
axis2_status_t (AXIS2_CALL *
add_msg_ctx)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env,
axis2_msg_ctx_t *msg_ctx);
/**
* @param message_id
* @return
* @throws AxisFault
*/
axis2_msg_ctx_t* (AXIS2_CALL *
get_msg_ctx)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env,
axis2_char_t *message_id);
/**
* Checks to see if the MEP is complete. i.e. whether all the messages that
* are associated with the MEP has arrived and MEP is complete.
*
*/
axis2_bool_t (AXIS2_CALL *
get_is_complete)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
axis2_status_t (AXIS2_CALL *
set_complete)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env,
axis2_bool_t is_complete);
/**
* Removes the pointers to this <code>op_ctx</code> in the
* <code>axis2_conf_ctx</code>'s op_ctxaxis2_hash_t *so that this
* <code>op_ctx</code> will eventually get garbage collected
* along with the <code>axis2_msg_ctx_t *</code>'s it contains. Note that if
* the caller wants to make sure its safe to clean up this op_ctx
* he should call is_complete() first. However, in cases like IN_OPTIONAL_OUT
* and OUT_OPTIONAL_IN, it is possibe this will get called without the MEP
* being complete due to the optional nature of the MEP.
*/
axis2_status_t (AXIS2_CALL *
cleanup)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
axis2_status_t (AXIS2_CALL *
set_parent)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env,
struct axis2_svc_ctx *svc_ctx);
axis2_hash_t* (AXIS2_CALL *
get_msg_ctx_map)(struct axis2_op_ctx *op_ctx,
axis2_env_t **env);
};
/**
* @brief Message Context struct
* Axis2 Message Context
*/
struct axis2_op_ctx
{
axis2_op_ctx_ops_t *ops;
};
AXIS2_DECLARE(axis2_op_ctx_t*)
axis2_op_ctx_create(axis2_env_t **env,
struct axis2_op *op,
struct axis2_svc_ctx * svc_ctx);
/************************** Start of function macros **************************/
#define AXIS2_OP_CTX_GET_BASE(op_ctx, env) \
((op_ctx)->ops->get_base(op_ctx, env))
#define AXIS2_OP_CTX_FREE(op_ctx, env)\
((op_ctx)->ops->free(op_ctx, env))
#define AXIS2_OP_CTX_INIT(op_ctx, env, conf) \
((op_ctx)->ops->init(op_ctx, env, conf))
#define AXIS2_OP_CTX_GET_OP(op_ctx, env)\
((op_ctx)->ops->get_op(op_ctx, env))
#define AXIS2_OP_CTX_GET_PARENT(op_ctx, env) \
((op_ctx)->ops->get_parent(op_ctx, env))
#define AXIS2_OP_CTX_ADD_MSG_CTX(op_ctx, env, msg_ctx) \
((op_ctx)->ops->add_msg_ctx(op_ctx, env, msg_ctx))
#define AXIS2_OP_CTX_GET_MSG_CTX(op_ctx, env, message_id) \
((op_ctx)->ops->get_msg_ctx(op_ctx, env, message_id))
#define AXIS2_OP_CTX_GET_IS_COMPLETE(op_ctx, env) \
((op_ctx)->ops->get_is_complete(op_ctx, env))
#define AXIS2_OP_CTX_SET_IS_COMPLETE(op_ctx, env, is_complete) \
((op_ctx)->ops->set_complete(op_ctx, env, is_complete))
#define AXIS2_OP_CTX_CLEANUP(op_ctx, env) \
((op_ctx)->ops->cleanup(op_ctx, env))
#define AXIS2_OP_CTX_SET_PARENT(op_ctx, env, svc_ctx) \
((op_ctx)->ops->set_parent(op_ctx, env, svc_ctx))
#define AXIS2_OP_CTX_GET_MSG_CTX_MAP(op_ctx, env) \
((op_ctx)->ops->get_msg_ctx_map(op_ctx, env))
/************************** End of function macros ****************************/
/** @} */
#ifdef __cplusplus
}
#endif
#endif /* AXIS2_OP_CTX_H */