blob: 014675d8e48fd48e4cd2a6ad353ce504e4dd54ad [file] [log] [blame]
/*
XML-RPC definitions for C++
Note:
XML-RPC declarations are given in the gSOAP header file xml-rpc.h
Iterators and iostream operators are declared in xml-rpc-iters.h
Example calling sequence:
// get XML-RPC serializers
#include "soapH.h"
#include "xml-rpc-io.h"
// set up context
soap *ctx = soap_new();
// define method
methodCall myMethod(ctx, "<endpoint-URL>", "<method-name>");
// populate input parameters
myMethod[0] = ...; // first param
myMethod[1] = ...; // second param
...
// make the call and get the response parameters
params output = myMethod();
// error?
if (myMethod.error())
soap_print_fault(ctx, stderr);
else if (output.empty())
cout << myMethod.fault() << endl;
else
for (params::iterator arg = output.begin(); arg != output.end(); ++arg)
cout << *arg << endl;
// delete all
soap_destroy(ctx);
soap_end(ctx);
soap_done(ctx);
free(ctx);
--------------------------------------------------------------------------------
gSOAP XML Web services tools
Copyright (C) 2001-2004, Robert van Engelen, Genivia, Inc. All Rights Reserved.
This software is released under one of the following two licenses:
GPL or Genivia's license for commercial use.
--------------------------------------------------------------------------------
GPL license.
This program is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License as published by the Free Software
Foundation; either version 2 of the License, or (at your option) any later
version.
This program is distributed in the hope that it will be useful, but WITHOUT ANY
WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A
PARTICULAR PURPOSE. See the GNU General Public License for more details.
You should have received a copy of the GNU General Public License along with
this program; if not, write to the Free Software Foundation, Inc., 59 Temple
Place, Suite 330, Boston, MA 02111-1307 USA
Author contact information:
engelen@genivia.com / engelen@acm.org
--------------------------------------------------------------------------------
A commercial use license is available from Genivia, Inc., contact@genivia.com
--------------------------------------------------------------------------------
*/
#include "soapH.H"
value::value()
{ }
value::value(struct soap *soap)
{ soap_default_value(soap, this);
}
value::value(struct soap *soap, struct _array &a)
{ soap_default_value(soap, this);
*this = a;
}
value::value(struct soap *soap, _base64 &b)
{ soap_default_value(soap, this);
*this = b;
}
value::value(struct soap *soap, bool b)
{ soap_default_value(soap, this);
*this = b;
}
value::value(struct soap *soap, char *s)
{ soap_default_value(soap, this);
*this = s;
}
value::value(struct soap *soap, double d)
{ soap_default_value(soap, this);
*this = d;
}
value::value(struct soap *soap, int n)
{ soap_default_value(soap, this);
*this = n;
}
value::value(struct soap *soap, struct _struct &r)
{ soap_default_value(soap, this);
*this = r;
}
bool value::is_array() const
{ return __type == SOAP_TYPE__array;
}
bool value::is_base64() const
{ return __type == SOAP_TYPE__base64;
}
bool value::is_bool() const
{ return __type == SOAP_TYPE__boolean;
}
bool value::is_double() const
{ return __type == SOAP_TYPE__double;
}
bool value::is_false() const
{ return __type == SOAP_TYPE__boolean && (bool)*(_boolean*)ref == false;
}
bool value::is_int() const
{ return __type == SOAP_TYPE__int || __type == SOAP_TYPE__i4;
}
bool value::is_struct() const
{ return __type == SOAP_TYPE__struct;
}
bool value::is_string() const
{ return __type == SOAP_TYPE__string || (__any && *__any);
}
bool value::is_true() const
{ return __type == SOAP_TYPE__boolean && (bool)*(_boolean*)ref == true;
}
value::operator struct _array&()
{ if (__type == SOAP_TYPE__array)
return *(struct _array*)ref;
return *soap_new__array(soap, -1);
}
value::operator const struct _array&() const
{ if (__type == SOAP_TYPE__array)
return *(const struct _array*)ref;
return *soap_new__array(soap, -1);
}
value::operator struct _base64&()
{ if (__type == SOAP_TYPE__base64)
return *(struct _base64*)ref;
return *soap_new__base64(soap, -1);
}
value::operator const struct _base64&() const
{ if (__type == SOAP_TYPE__base64)
return *(const struct _base64*)ref;
return *soap_new__base64(soap, -1);
}
value::operator char*()
{ if (__type == SOAP_TYPE__string || __type == SOAP_TYPE__dateTime_DOTiso8601)
return (char*)ref;
if (__any)
return __any;
return "";
}
value::operator const char*() const
{ if (__type == SOAP_TYPE__string || __type == SOAP_TYPE__dateTime_DOTiso8601)
return (const char*)ref;
if (__any)
return __any;
return "";
}
value::operator double() const
{ if (__type == SOAP_TYPE__double)
return (double)*(_double*)ref;
return 0.0;
}
value::operator int() const
{ if (__type == SOAP_TYPE__int)
return (int)*(_int*)ref;
if (__type == SOAP_TYPE__i4)
return (int)*(_i4*)ref;
return 0;
}
value::operator struct _struct&()
{ if (__type == SOAP_TYPE__struct)
return *(struct _struct*)ref;
return *soap_new__struct(soap, -1);
}
value::operator const struct _struct&() const
{ if (__type == SOAP_TYPE__struct)
return *(const struct _struct*)ref;
return *soap_new__struct(soap, -1);
}
struct value& value::operator[](int n)
{ return ((struct _array&)*this)[n];
}
struct value& value::operator[](const char *s)
{ return ((struct _struct&)*this)[s];
}
struct _array& value::operator=(struct _array& a)
{ __type = SOAP_TYPE__array;
__any = NULL;
ref = &a;
return a;
}
_base64& value::operator=(_base64& b)
{ __type = SOAP_TYPE__base64;
__any = NULL;
ref = &b;
return b;
}
bool value::operator=(bool b)
{ __type = SOAP_TYPE__boolean;
__any = NULL;
ref = soap_malloc(soap, sizeof(_boolean));
*(_boolean*)ref = (_boolean)b;
return b;
}
char* value::operator=(char *s)
{ __type = SOAP_TYPE__string;
__any = NULL;
ref = soap_strdup(soap, s);
return s;
}
double value::operator=(double d)
{ __type = SOAP_TYPE__double;
__any = NULL;
ref = soap_malloc(soap, sizeof(_double));
*(_double*)ref = (_double)d;
return d;
}
int value::operator=(int n)
{ __type = SOAP_TYPE__int;
__any = NULL;
ref = soap_malloc(soap, sizeof(_int));
*(_int*)ref = (_int)n;
return n;
}
struct _struct& value::operator=(struct _struct& r)
{ __type = SOAP_TYPE__struct;
__any = NULL;
ref = &r;
return r;
}
time_t value::operator=(time_t t)
{ __type = SOAP_TYPE__dateTime_DOTiso8601;
__any = NULL;
ref = soap_strdup(soap, soap_dateTime2s(soap, t));
return t;
}
_struct::_struct()
{ }
_struct::_struct(struct soap *soap)
{ soap_default__struct(soap, this);
}
_struct::_struct(struct soap *soap, int len)
{ soap_default__struct(soap, this);
__size = len;
member = (struct member*)soap_malloc(soap, __size * sizeof(struct member));
for (int i = 0; i < __size; i++)
soap_default_member(soap, &member[i]);
}
bool _struct::empty() const
{ return __size == 0;
}
int _struct::size() const
{ return __size;
}
struct value& _struct::operator[](const char *s)
{ int i = 0;
if (!member)
{ __size = 1;
member = (struct member*)soap_malloc(soap, sizeof(struct member));
}
else
{ for (i = 0; i < __size; i++)
{ if (!strcmp(member[i].name, s))
return member[i].value;
}
__size++;
struct member *newmember = (struct member*)soap_malloc(soap, __size * sizeof(struct member));
for (i = 0; i < __size - 1; i++)
newmember[i] = member[i];
soap_unlink(soap, member);
free(member);
member = newmember;
}
member[i].name = soap_strdup(soap, s);
soap_default_value(soap, &member[i].value);
return member[i].value;
}
_struct_iterator _struct::begin()
{ _struct_iterator iter(this);
return iter;
}
_struct_iterator _struct::end()
{ _struct_iterator iter(this);
iter += __size;
return iter;
}
_array::_array()
{ }
_array::_array(struct soap *soap)
{ soap_default__array(soap, this);
}
_array::_array(struct soap *soap, int len)
{ soap_default__array(soap, this);
data.__size = len;
data.value = (struct value*)soap_malloc(soap, data.__size * sizeof(struct value));
for (int i = 0; i < data.__size; i++)
soap_default_value(soap, &data.value[i]);
}
bool _array::empty() const
{ return data.__size == 0;
}
int _array::size() const
{ return data.__size;
}
struct value& _array::operator[](int n)
{ if (!data.value)
{ data.__size = n + 1;
data.value = (struct value*)soap_malloc(soap, data.__size * sizeof(struct value));
for (int i = 0; i < data.__size; i++)
soap_default_value(soap, &data.value[i]);
}
else if (data.__size <= n)
{ int oldsize = data.__size;
data.__size = n + 1;
struct value *newvalue = (struct value*)soap_malloc(soap, data.__size * sizeof(struct value));
int i;
for (i = 0; i < oldsize; i++)
newvalue[i] = data.value[i];
for (; i < data.__size; i++)
soap_default_value(soap, &newvalue[i]);
soap_unlink(soap, data.value);
free(data.value);
data.value = newvalue;
}
return data.value[n];
}
_array_iterator _array::begin()
{ _array_iterator iter(this);
return iter;
}
_array_iterator _array::end()
{ _array_iterator iter(this);
iter += data.__size;
return iter;
}
_base64::_base64()
{ }
_base64::_base64(struct soap *soap)
{ soap_default__base64(soap, this);
}
int _base64::size() const
{ return __size;
}
unsigned char* _base64::ptr()
{ return __ptr;
}
params::params()
{ }
params::params(struct soap *soap)
{ soap_default_params(soap, this);
}
params::params(struct soap *soap, int len)
{ soap_default_params(soap, this);
__size = len;
param = (struct param*)soap_malloc(soap, __size * sizeof(struct param));
for (int i = 0; i < __size; i++)
soap_default_param(soap, &param[i]);
}
bool params::empty() const
{ return __size == 0;
}
int params::size() const
{ return __size;
}
struct value& params::operator[](int n)
{ if (!param)
{ __size = n + 1;
param = (struct param*)soap_malloc(soap, __size * sizeof(struct param));
for (int i = 0; i < __size; i++)
soap_default_param(soap, &param[i]);
}
else if (__size <= n)
{ int oldsize = __size;
__size = n + 1;
struct param *newparam = (struct param*)soap_malloc(soap, __size * sizeof(struct param));
int i;
for (i = 0; i < oldsize; i++)
newparam[i] = param[i];
for (; i < __size; i++)
soap_default_param(soap, &newparam[i]);
soap_unlink(soap, param);
free(param);
param = newparam;
}
return param[n].value;
}
params_iterator params::begin()
{ params_iterator iter(this);
return iter;
}
params_iterator params::end()
{ params_iterator iter(this);
iter += __size;
return iter;
}
methodCall::methodCall()
{ }
methodCall::methodCall(struct soap *soap, const char *endpoint, const char *name)
{ soap_default_methodCall(soap, this);
methodName = soap_strdup(soap, name);
methodEndpoint = soap_strdup(soap, endpoint);
methodResponse = NULL;
}
struct value& methodCall::operator[](int n)
{ return params[n];
}
struct params& methodCall::operator()()
{ /* no namespaces */
soap->namespaces = NULL;
/* no SOAP encodingStyle */
soap->encodingStyle = NULL;
/* connect, send request, and receive response */
if (soap_connect(soap, methodEndpoint, NULL)
|| soap_begin_send(soap)
|| soap_put_methodCall(soap, this, "methodCall", NULL)
|| soap_end_send(soap)
|| soap_begin_recv(soap)
|| !(methodResponse = soap_get_methodResponse(soap, methodResponse, "methodResponse", NULL))
|| soap_end_recv(soap))
methodResponse = NULL;
soap_closesock(soap);
if (methodResponse && methodResponse->params)
return *methodResponse->params;
return *soap_new_params(soap, -1);
}
struct params& methodCall::operator()(const struct params& args)
{ /* parameters */
params = args;
/* invoke */
return (*this)();
}
struct params& methodCall::response()
{ if (!methodResponse)
methodResponse = soap_new_methodResponse(soap, -1);
if (!methodResponse->params)
methodResponse->params = soap_new_params(soap, -1);
return *methodResponse->params;
}
struct value& methodCall::fault()
{ if (methodResponse && methodResponse->fault)
return methodResponse->fault->value;
return *soap_new_value(soap, -1);
}
int methodCall::error() const
{ return soap->error;
}
methodResponse::methodResponse()
{ }
methodResponse::methodResponse(struct soap *soap)
{ soap_default_methodResponse(soap, this);
}
_array_iterator::_array_iterator()
{ value = start = NULL;
}
_array_iterator::_array_iterator(const struct _array* a)
{ value = start = a->data.value;
}
bool _array_iterator::operator==(const _array_iterator& that) const
{ return this->value == that.value;
}
bool _array_iterator::operator!=(const _array_iterator& that) const
{ return this->value != that.value;
}
int _array_iterator::index() const
{ return value - start;
}
struct value& _array_iterator::operator*() const
{ return *value;
}
_array_iterator& _array_iterator::operator++()
{ value++;
return *this;
}
_array_iterator& _array_iterator::operator+=(int step)
{ value += step;
return *this;
}
_struct_iterator::_struct_iterator()
{ member = NULL;
}
_struct_iterator::_struct_iterator(const struct _struct* s)
{ member = s->member;
}
bool _struct_iterator::operator==(const _struct_iterator& that) const
{ return this->member == that.member;
}
bool _struct_iterator::operator!=(const _struct_iterator& that) const
{ return this->member != that.member;
}
const char* _struct_iterator::index() const
{ return member->name;
}
struct value& _struct_iterator::operator*() const
{ return member->value;
}
_struct_iterator& _struct_iterator::operator++()
{ member++;
return *this;
}
_struct_iterator& _struct_iterator::operator+=(int step)
{ member += step;
return *this;
}
params_iterator::params_iterator()
{ start = param = NULL;
}
params_iterator::params_iterator(const struct params* s)
{ start = param = s->param;
}
bool params_iterator::operator==(const params_iterator& that) const
{ return this->param == that.param;
}
bool params_iterator::operator!=(const params_iterator& that) const
{ return this->param != that.param;
}
int params_iterator::index() const
{ return param - start;
}
struct value& params_iterator::operator*() const
{ return param->value;
}
params_iterator& params_iterator::operator++()
{ param++;
return *this;
}
params_iterator& params_iterator::operator+=(int step)
{ param += step;
return *this;
}