def createArgs(self, operation, env):
"""
corba:
base_type:
arg_type:
arg_name:
var_name:
decl_type:
direction:
tk:
local:
base_type:
arg_type:
arg_name:
var_name:
decl_type:
direction:
tk:
"""
args = []
direction = ['in', 'out', 'inout','return']
for arg in operation.parameters():
# corba args information
dict = self.createDecl('arg')
cdict = dict['corba']
ldict = dict['local']
paramType = types.Type(arg.paramType())
(corba_type, local_type, is_primitive) = self.getType(paramType)
cdict['base_type'] = corba_type
ldict['base_type'] = local_type
if is_primitive != None:
cdict['is_primitive'] = is_primitive
arg_name = id.mapID(arg.identifier())
cdict['arg_name'] = arg_name
ldict['arg_name'] = arg_name
cdict['var_name'] = '_' + arg_name
ldict['var_name'] = '_' + arg_name
direction_val = direction[arg.direction()]
cdict['direction'] = direction_val
ldict['direction'] = direction_val
cdict['tk'] = ldict['tk'] = self.tk_map[paramType.kind()]
arg_type = paramType.op(types.direction(arg), use_out = 0)
arg_type = arg_type.replace('CORBA', '::CORBA')
arg_type = arg_type.replace('RTC', '::RTC')
arg_type = arg_type.replace('SDOPackage', '::SDOPackage')
arg_type = arg_type.replace('::::', '::')
cdict['arg_type'] = arg_type
out = arg.is_out()
self.createArg(dict, paramType, out)
args.append(dict)
return args
def addOps(self,node,ops):
for i in node.inherits():
self.addOps(i,ops)
for d in node.contents():
if isinstance(d, idlast.Operation):
new_op = CC.Operation(d.identifier(),baseTypes[d.returnType().kind()])
# Get the c++ mappping of the return type
cxxRT = types.Type(d.returnType())
new_op.cxxReturnType = cxxRT.base()
# if new_op.returnType == 'string':
# print foo2.base()
#print new_op.name + "::" + d.identifier() + "()"
#tmpstr = node.identifier() + "::" + d.identifier() + "("
#tmpstr2 = " " + node.identifier() + "::" + d.identifier() + "("
if hasattr(d,'parameters'):
for p in d.parameters():
new_param = CC.Param(p.identifier())
t = p.paramType()
# Get the c++ mapping of the type
cxxT = types.Type(t)
new_param.cxxType = cxxT.op(types.direction(p))
if hasattr(t,'scopedName'):
#print ' '*8 + str(t.scopedName()),
new_param.dataType = idlutil.ccolonName(t.scopedName())
else:
if isinstance(t,idltype.Type):
#print ' '*8 + baseTypes[t.kind()],
new_param.dataType = baseTypes[t.kind()]
if p.is_in() and p.is_out():
new_param.direction = 'inout'
elif p.is_out():
new_param.direction = 'out'
else:
new_param.direction = 'in'
new_op.params.append(new_param)
#tmpstr += new_param.direction + " " + new_param.dataType + ","
#tmpstr2 += new_param.direction + " " + new_param.cxxType + ","
ops.append(new_op)
def _from_Callable(self, use_out):
# Grab the IDL environment
ifc = self.callable().interface()
environment = ifc.environment().enter("_objref_" + ifc.name().simple())
# Kept as a type object because in .cc part the _return_ type
# must be fully qualified.
self._return_type = types.Type(self.callable().returnType())
# Parameters are always relative, both in .hh and .cc
(param_types, param_names) = ([], [])
for p in self.callable().parameters():
pType = types.Type(p.paramType())
direction = types.direction(p)
param_types.append(pType.op(direction, environment,
use_out = use_out))
# Special ugly case. If the IDL says something like (in foo::bar
# bar), the parameter name may be the same as the relative type
# name. We mangle the parameter name if this happens.
typeBase = pType.base(environment)
ident = id.mapID(p.identifier())
if typeBase == ident:
ident = "_" + ident
param_names.append(ident)
# an operation has optional context
if self.callable().contexts() != []:
param_types.append("::CORBA::Context_ptr")
param_names.append("_ctxt")
self._arg_types = param_types
self._arg_names = param_names
self._name = self.callable().method_name()
def _from_Callable(self, use_out):
# Grab the IDL environment
ifc = self.callable().interface()
environment = ifc.environment().enter("_objref_" + ifc.name().simple())
# Kept as a type object because in .cc part the _return_ type
# must be fully qualified.
self._return_type = types.Type(self.callable().returnType())
# Parameters are always relative, both in .hh and .cc
(param_types, param_names) = ([], [])
for p in self.callable().parameters():
pType = types.Type(p.paramType())
direction = types.direction(p)
param_types.append(
pType.op(direction, environment, use_out=use_out))
# Special ugly case. If the IDL says something like (in foo::bar
# bar), the parameter name may be the same as the relative type
# name. We mangle the parameter name if this happens.
typeBase = pType.base(environment)
ident = id.mapID(p.identifier())
if typeBase == ident:
ident = "_" + ident
param_names.append(ident)
# an operation has optional context
if self.callable().contexts() != []:
param_types.append("::CORBA::Context_ptr")
param_names.append("_ctxt")
self._arg_types = param_types
self._arg_names = param_names
self._name = self.callable().method_name()
def buildCallables(interface, where, continuation, defined_so_far = {}):
interface = ast.remove_ast_typedefs(interface)
callables = interface.callables()
operations = filter(lambda x:isinstance(x, idlast.Operation),
callables)
for operation in operations:
returnType = types.Type(operation.returnType())
identifier = operation.identifier()
if (defined_so_far.has_key(identifier)):
# don't repeat it
continue
defined_so_far[identifier] = 1
parameters = operation.parameters()
has_return_value = not returnType.void()
# FIXME: return types are fully scoped but argument types
# arent?
returnType_name = returnType.op(types.RET)
operation_name = id.mapID(identifier)
signature = []
call = []
for parameter in parameters:
paramType = types.Type(parameter.paramType())
# Need to call the _impl operation not the _objref operation
param_type_name = paramType.op(types.direction(parameter),
use_out = 0)
param_id = id.mapID(parameter.identifier())
signature.append(param_type_name + " " + param_id)
call.append(param_id)
# deal with call contextx
if operation.contexts() != []:
signature.append("::CORBA::Context_ptr _ctxt")
call.append("_ctxt")
if has_return_value:
return_str = "return "
else:
return_str = ""
where.out("""\
@return_type_name@ @operation_name@(@signature@) { @return_str@pd_obj->@operation_name@(@call@); }""", return_type_name = returnType_name,
operation_name = operation_name,
return_str = return_str,
signature = ", ".join(signature),
call = ", ".join(call))
attributes = filter(lambda x:isinstance(x, idlast.Attribute),
callables)
for attribute in attributes:
identifiers = attribute.identifiers()
attrType = types.Type(attribute.attrType())
attrType_name_RET = attrType.op(types.RET)
attrType_name_IN = attrType.op(types.IN)
for identifier in identifiers:
if defined_so_far.has_key(identifier):
# don't repeat it
continue
defined_so_far[identifier] = 1
ident = id.mapID(identifier)
where.out("""\
@attr_type_ret_name@ @attribute_name@() { return pd_obj->@attribute_name@(); }""", attr_type_ret_name = attrType_name_RET,
attribute_name = ident)
if not attribute.readonly():
where.out("""\
void @attribute_name@(@attr_type_in_name@ _value) { pd_obj->@attribute_name@(_value); }""", attribute_name = ident,
attr_type_in_name = attrType_name_IN)
# do the recursive bit
for i in interface.inherits():
i = i.fullDecl()
continuation(i, where, continuation, defined_so_far)
# done
return
def addOps(self, node, ops, attrs):
# add inherited operations
for i in node.inherits():
self.addOps(i, ops, attrs)
for d in node.contents():
if isinstance(d, idlast.Operation):
# create the Operation object
#new_op = base.Operation(d.identifier(),baseTypes[d.returnType().kind()])
kind = d.returnType().kind()
if (kind == idltype.tk_alias): # resolve the 'alias'
kind = d.returnType().decl().alias().aliasType().kind()
new_op = Operation(d.identifier(), baseTypes[kind])
# Get the c++ mapping of the return type
cxxRT = types.Type(d.returnType())
#if not new_op.cxxReturnType == 'void':
new_op.cxxReturnType = (cxxRT.base(), cxxRT.variable())
#print new_op.name + "::" + d.identifier() + "()"
#tmpstr = node.identifier() + "::" + d.identifier() + "("
#tmpstr2 = " " + node.identifier() + "::" + d.identifier() + "("
# find and process the parameters of the operation
if hasattr(d, 'parameters'):
for p in d.parameters():
#new_param = base.Param(p.identifier())
new_param = Param(p.identifier())
t = p.paramType()
# Get the c++ mapping of the type
cxxT = types.Type(t)
new_param.cxxType = cxxT.op(types.direction(p))
if hasattr(t, 'scopedName'):
new_param.dataType = idlutil.ccolonName(
t.scopedName())
else:
if isinstance(t, idltype.Type):
new_param.dataType = baseTypes[t.kind()]
if p.is_in() and p.is_out():
new_param.direction = 'inout'
elif p.is_out():
new_param.direction = 'out'
else:
new_param.direction = 'in'
new_op.params.append(new_param)
if hasattr(d, 'raises'):
for r in d.raises():
#print r.identifier()
new_raises = Raises(r.identifier())
new_op.raises.append(new_raises)
ops.append(new_op)
if isinstance(d, idlast.Attribute):
# create the Attribute object
decl = d.declarators()[0]
kind = d.attrType().kind()
if (kind == idltype.tk_alias): # resolve the 'alias'
kind = d.attrType().decl().alias().aliasType().kind()
if hasattr(d.attrType(), 'scopedName'):
dataType = idlutil.ccolonName(d.attrType().scopedName())
else:
dataType = baseTypes[kind]
new_attr = Attribute(decl.identifier(), d.readonly(), dataType,
baseTypes[kind])
# Get the c++ mapping of the return type
cxxRT = types.Type(d.attrType())
new_attr.cxxReturnType = (cxxRT.base(), cxxRT.variable())
new_attr.cxxType = cxxRT.op(0)
attrs.append(new_attr)
def buildCallables(interface, where, continuation, defined_so_far={}):
interface = ast.remove_ast_typedefs(interface)
callables = interface.callables()
operations = filter(lambda x: isinstance(x, idlast.Operation),
callables)
for operation in operations:
returnType = types.Type(operation.returnType())
identifier = operation.identifier()
if (defined_so_far.has_key(identifier)):
# don't repeat it
continue
defined_so_far[identifier] = 1
parameters = operation.parameters()
has_return_value = not returnType.void()
# FIXME: return types are fully scoped but argument types
# arent?
returnType_name = returnType.op(types.RET)
operation_name = id.mapID(identifier)
signature = []
call = []
for parameter in parameters:
paramType = types.Type(parameter.paramType())
# Need to call the _impl operation not the _objref operation
param_type_name = paramType.op(types.direction(parameter),
use_out=0)
param_id = id.mapID(parameter.identifier())
signature.append(param_type_name + " " + param_id)
call.append(param_id)
# deal with call contextx
if operation.contexts() != []:
signature.append("::CORBA::Context_ptr _ctxt")
call.append("_ctxt")
if has_return_value:
return_str = "return "
else:
return_str = ""
where.out("""\
@return_type_name@ @operation_name@(@signature@) { @return_str@pd_obj->@operation_name@(@call@); }""",
return_type_name=returnType_name,
operation_name=operation_name,
return_str=return_str,
signature=", ".join(signature),
call=", ".join(call))
attributes = filter(lambda x: isinstance(x, idlast.Attribute),
callables)
for attribute in attributes:
identifiers = attribute.identifiers()
attrType = types.Type(attribute.attrType())
attrType_name_RET = attrType.op(types.RET)
attrType_name_IN = attrType.op(types.IN)
for identifier in identifiers:
if defined_so_far.has_key(identifier):
# don't repeat it
continue
defined_so_far[identifier] = 1
ident = id.mapID(identifier)
where.out("""\
@attr_type_ret_name@ @attribute_name@() { return pd_obj->@attribute_name@(); }""",
attr_type_ret_name=attrType_name_RET,
attribute_name=ident)
if not attribute.readonly():
where.out("""\
void @attribute_name@(@attr_type_in_name@ _value) { pd_obj->@attribute_name@(_value); }""",
attribute_name=ident,
attr_type_in_name=attrType_name_IN)
# do the recursive bit
for i in interface.inherits():
i = i.fullDecl()
continuation(i, where, continuation, defined_so_far)
# done
return
def addOps(self,node,ops,attrs):
# add inherited operations
for i in node.inherits():
self.addOps(i,ops,attrs)
for d in node.contents():
if isinstance(d, idlast.Operation):
# create the Operation object
#new_op = base.Operation(d.identifier(),baseTypes[d.returnType().kind()])
kind = d.returnType().kind()
if (kind==idltype.tk_alias): # resolve the 'alias'
kind = d.returnType().decl().alias().aliasType().kind()
new_op = Operation(d.identifier(),baseTypes[kind])
# Get the c++ mapping of the return type
cxxRT = types.Type(d.returnType())
new_op.cxxReturnType = cxxRT.base()
#print new_op.name + "::" + d.identifier() + "()"
#tmpstr = node.identifier() + "::" + d.identifier() + "("
#tmpstr2 = " " + node.identifier() + "::" + d.identifier() + "("
# find and process the parameters of the operation
if hasattr(d,'parameters'):
for p in d.parameters():
#new_param = base.Param(p.identifier())
new_param = Param(p.identifier())
t = p.paramType()
# Get the c++ mapping of the type
cxxT = types.Type(t)
new_param.cxxType = cxxT.op(types.direction(p))
if hasattr(t,'scopedName'):
new_param.dataType = idlutil.ccolonName(t.scopedName())
else:
if isinstance(t,idltype.Type):
new_param.dataType = baseTypes[t.kind()]
if p.is_in() and p.is_out():
new_param.direction = 'inout'
elif p.is_out():
new_param.direction = 'out'
else:
new_param.direction = 'in'
new_op.params.append(new_param)
if hasattr(d, 'raises'):
for r in d.raises():
#print r.identifier()
new_raises = Raises(r.identifier())
new_op.raises.append(new_raises)
ops.append(new_op)
if isinstance(d, idlast.Attribute):
# create the Attribute object
decl = d.declarators()[0]
kind = d.attrType().kind()
if (kind==idltype.tk_alias): # resolve the 'alias'
kind = d.attrType().decl().alias().aliasType().kind()
if hasattr(d.attrType(),'scopedName'):
dataType = idlutil.ccolonName(d.attrType().scopedName())
else:
dataType = baseTypes[kind]
new_attr = Attribute(decl.identifier(),d.readonly(),dataType,baseTypes[kind])
# Get the c++ mapping of the return type
cxxRT = types.Type(d.attrType())
new_attr.cxxReturnType = cxxRT.base()
new_attr.cxxType = cxxRT.op(0)
attrs.append(new_attr)
def visitInterface(self, node):
scopedName = id.Name(node.scopedName())
openns, closens = namespaces(scopedName, self.environment)
impl_name = scopedName.simple(cxx=1)
impl_tpl_name = impl_tplname (scopedName)
cxx_fqname = scopedName.fullyQualify()
hpp_class = self.toCppNamespace (scopedName).fullyQualify(cxx=1)
fqname = scopedName.fullyQualify(cxx = 0)
is_base_class = not bool(node.inherits())
ptr_t = self.toCppNamespace (scopedName.suffix("Ptr_t")).fullyQualify(cxx=1)
if is_base_class:
key = hpp_servant_name (scopedName)
impl_base_name = "ServantBase"
if key in self.storages:
st = self.storages[key]
# declare storage
self.interface_declarations.out(st.decl)
storage = st.sc.simple() + "< "+ptr_t+" >"
else:
storage = ptr_t
else:
baseScopedName = id.Name (node.inherits()[0].scopedName())
key = hpp_servant_name (baseScopedName)
impl_base_name = hpp_servant_name (baseScopedName.suffix('Servant'))
if key in self.storages:
st = self.storages[key]
storage = st.sc.simple() + "< "+ptr_t+" >"
self.storages[fqname] = st
else:
storage = ptr_t
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
operations = []
allCallables = node.callables()
# declarations contains a list of in-class decl signatures
# implementations contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = output.StringStream()
implementations = output.StringStream()
for c in allCallables:
comments = c.comments()
hpp_opname = None
comments_impl = []
for comment in comments:
if comment.text().startswith("// ") or comment.text().startswith("///"):
# Skip this comment
pass
elif comment.text().startswith("//*"):
if not comments_impl:
comments_impl.append (" // generated from {}:{}\n".format(node.file(), node.line()))
comments_impl.append (comment.text()[3:])
elif comment.text().startswith("//->"):
if hpp_opname is not None: raise makeError("Function was already renamed", comment.file(), comment.line())
hpp_opname = comment.text()[4:].strip()
if isinstance(c, idlast.Attribute):
attrType = types.Type(c.attrType())
d_attrType = attrType.deref()
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
declarations.out (template.operation_decl_code,
return_type = "void",
opname = attribname,
arg_defs = inType + " _" + attribname)
tmpVar, in_conv, out_conv = self.argConversion ("_" + attribname, attrType, True, False, c)
implementations.out (template.operation_impl_code,
return_type = "void",
impl_tpl_name = impl_tpl_name,
opname = attribname,
hpp_opname = hpp_opname if hpp_opname else attribname,
arg_defs = inType + " _" + attribname,
in_conversions = in_conv if in_conv else "",
out_conversions = out_conv if out_conv else "",
store_return = "",
do_return = "",
arg_calls = tmpVar)
declarations.out (template.operation_decl_code,
return_type = returnType,
opname = attribname,
arg_defs = "")
store_return, do_return = self.retConversion (attrType)
implementations.out (template.operation_impl_code,
return_type = returnType,
impl_tpl_name = impl_tpl_name,
opname = attribname,
hpp_opname = hpp_opname if hpp_opname else attribname,
arg_defs = "",
in_conversions = "",
out_conversions = "",
store_return = store_return,
do_return = do_return,
arg_calls = "")
elif isinstance(c, idlast.Operation):
params = []
paramNames = []
in_conversions = []
out_conversions = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out = 0)
argname = id.mapID(p.identifier())
if not comments_impl:
tmpVar, in_conv, out_conv = self.argConversion (argname, paramType, p.is_in(), p.is_out(), p)
if in_conv:
in_conversions.append(in_conv)
if out_conv:
out_conversions.append(out_conv)
else:
tmpVar = argname
params.append(cxx_type + " " + argname)
paramNames.append(tmpVar)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
store_return, do_return = self.retConversion (types.Type(c.returnType()))
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
arguments = ", ".join(params)
argumentsCall = ", ".join(paramNames)
args = opname + "(" + arguments + ")"
declarations.out (template.operation_decl_code,
return_type = return_type,
opname = opname,
arg_defs = arguments)
if comments_impl:
implementations.out (template.provided_operation_impl_code,
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
implementation = "".join(comments_impl),
arg_defs = arguments,)
elif opname in template.predefined_operations_impl_code:
#assert not c.parameters(), "Interface operation str should not have arguments"
implementations.out (template.predefined_operations_impl_code[opname],
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
conversions = "\n ".join(in_conversions),
arg_defs = arguments,
store_return = store_return,
do_return = do_return,
arg_calls = argumentsCall)
else:
implementations.out (template.operation_impl_code,
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
hpp_opname = hpp_opname if hpp_opname is not None else opname,
in_conversions = "\n ".join(in_conversions),
out_conversions = "\n ".join(out_conversions),
arg_defs = arguments,
store_return = store_return,
do_return = do_return,
arg_calls = argumentsCall)
else:
util.fatalError("Internal error generating interface member")
raise AssertionError("No code for interface member: "+repr(c))
openns, closens = namespaces(scopedName, self.environment)
# Output the _i class definition definition
self.interface_declarations.out(
template.base_interface_def if is_base_class else template.inherited_interface_def,
fq_name = fqname,
impl_tpl_name = impl_tpl_name,
impl_base_name = impl_base_name,
operations = str(declarations),
impl_name = impl_name,
fq_POA_name = "POA_" + cxx_fqname,
hpp_class = hpp_class,
storage = storage,
open_namespaces = openns,
close_namespaces = closens,
)
self.interface_implementations.out(
template.base_interface_code if is_base_class else template.inherited_interface_code,
fqname = fqname,
impl_name = impl_name,
impl_tpl_name = impl_tpl_name,
impl_base_name = impl_base_name,
hpp_class = hpp_class,
operations = str(implementations),
open_namespaces = openns,
close_namespaces = closens,
)
def visitInterface(self, node):
self.__allInterfaces.append(node)
scopedName = id.Name(node.scopedName())
cxx_fqname = scopedName.fullyQualify()
impl_flat_name = impl_fullname(scopedName)
fqname = scopedName.fullyQualify(cxx = 0)
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
# we need to consider all callables, including inherited ones
# since this implementation class is not inheriting from anywhere
# other than the IDL skeleton
allInterfaces = [node] + ast.allInherits(node)
allCallables = []
for intf in allInterfaces:
allCallables.extend(intf.callables())
# declarations[] contains a list of in-class decl signatures
# implementations[] contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = []
implementations = []
for c in allCallables:
if isinstance(c, idlast.Attribute):
attrType = types.Type(c.attrType())
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
args = attribname + "(" + inType + ")"
declarations.append("void " + args)
implementations.append("void " + impl_flat_name +\
"::" + args)
declarations.append(returnType + " " + attribname + "()")
implementations.append(returnType + " " + impl_flat_name+\
"::" + attribname + "()")
elif isinstance(c, idlast.Operation):
params = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out = 0)
argname = id.mapID(p.identifier())
params.append(cxx_type + " " + argname)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
arguments = ", ".join(params)
args = opname + "(" + arguments + ")"
declarations.append(return_type + " " + args + ";")
implementations.append(return_type + " " + impl_flat_name +
"::" + args)
else:
util.fatalError("Internal error generating interface member")
# the class definition has no actual code...
defs = "\n".join(declarations)
# Output the _i class definition definition
self.stream.out(template.interface_def,
impl_fqname = impl_flat_name,
impl_name = impl_flat_name,
fq_name = fqname,
fq_POA_name = "POA_" + cxx_fqname,
operations = defs)
# Output the implementations of the class methods
impls = "".join([ """\
%s
{
// insert code here and remove the warning
#warning "Code missing in function <%s>"
}
""" % (impl,impl) for impl in implementations ])
self.stream.out(template.interface_code,
fqname = fqname,
impl_name = impl_flat_name,
impl_fqname = impl_flat_name,
operations = impls)
def visitInterface(self, node):
self.__allInterfaces.append(node)
scopedName = id.Name(node.scopedName())
cxx_fqname = scopedName.fullyQualify()
impl_flat_name = impl_fullname(scopedName)
fqname = scopedName.fullyQualify(cxx = 0)
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
operations = []
virtual_operations = []
# we need to consider all callables, including inherited ones
# since this implementation class is not inheriting from anywhere
# other than the IDL skeleton
allInterfaces = [node] + ast.allInherits(node)
allCallables = util.fold( map(lambda x:x.callables(), allInterfaces),
[], lambda x, y: x + y )
# declarations[] contains a list of in-class decl signatures
# implementations[] contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = []
implementations = []
for c in allCallables:
if isinstance(c, idlast.Attribute) :
attrType = types.Type(c.attrType())
d_attrType = attrType.deref()
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
args = attribname + "(" + inType + ")"
declarations.append("void " + args)
implementations.append("void " + impl_flat_name +\
"::" + args)
if not attribname in self.ignore_operations:
declarations.append(returnType + " " + attribname + "()")
implementations.append(returnType + " " + impl_flat_name+\
"::" + attribname + "()")
elif isinstance(c, idlast.Operation):
params = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out = 0)
argname = id.mapID(p.identifier())
params.append(cxx_type + " " + argname)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
if not opname in self.ignore_operations:
arguments = string.join(params, ", ")
args = opname + "(" + arguments + ")"
declarations.append(return_type + " " + args)
implementations.append(return_type + " " + \
impl_flat_name + \
"::" + args)
else:
util.fatalError("Internal error generating interface member")
raise "No code for interface member: " + repr(c)
# the class definition has no actual code...
defs = string.join(map(lambda x:x + ";\n", declarations), "")
# Output the class definition of the implementation
self.stream_h.out(interface_def,
impl_fqname = impl_flat_name,
impl_name = impl_flat_name,
fq_name = fqname,
fq_POA_name = "POA_" + cxx_fqname,
operations = defs)
# Output the class methods implementations
impls = string.join(map(lambda x: x + """\
{
// Please insert your code here and remove the following warning pragma
#ifndef WIN32
#warning "Code missing in function <""" + x + """>"
#endif
}
""",
implementations), "")
self.stream_cpp.out(interface_code,
fqname = fqname,
impl_name = impl_flat_name,
impl_fqname = impl_flat_name,
operations = impls)
def visitInterface(self, node):
self.__allInterfaces.append(node)
scopedName = id.Name(node.scopedName())
cxx_fqname = scopedName.fullyQualify()
impl_flat_name = impl_fullname(scopedName)
fqname = scopedName.fullyQualify(cxx=0)
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
# we need to consider all callables, including inherited ones
# since this implementation class is not inheriting from anywhere
# other than the IDL skeleton
allInterfaces = [node] + ast.allInherits(node)
allCallables = []
for intf in allInterfaces:
allCallables.extend(intf.callables())
# declarations[] contains a list of in-class decl signatures
# implementations[] contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = []
implementations = []
for c in allCallables:
if isinstance(c, idlast.Attribute):
attrType = types.Type(c.attrType())
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
args = attribname + "(" + inType + ")"
declarations.append("void " + args)
implementations.append("void " + impl_flat_name +\
"::" + args)
declarations.append(returnType + " " + attribname + "()")
implementations.append(returnType + " " + impl_flat_name+\
"::" + attribname + "()")
elif isinstance(c, idlast.Operation):
params = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out=0)
argname = id.mapID(p.identifier())
params.append(cxx_type + " " + argname)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
arguments = ", ".join(params)
args = opname + "(" + arguments + ")"
declarations.append(return_type + " " + args + ";")
implementations.append(return_type + " " + impl_flat_name +
"::" + args)
else:
util.fatalError("Internal error generating interface member")
# the class definition has no actual code...
defs = "\n".join(declarations)
# Output the _i class definition definition
self.stream.out(template.interface_def,
impl_fqname=impl_flat_name,
impl_name=impl_flat_name,
fq_name=fqname,
fq_POA_name="POA_" + cxx_fqname,
operations=defs)
# Output the implementations of the class methods
impls = "".join([
"""\
%s
{
// insert code here and remove the warning
#warning "Code missing in function <%s>"
}
""" % (impl, impl) for impl in implementations
])
self.stream.out(template.interface_code,
fqname=fqname,
impl_name=impl_flat_name,
impl_fqname=impl_flat_name,
operations=impls)
def visitInterface(self, node):
scopedName = id.Name(node.scopedName())
openns, closens = namespaces(scopedName, self.environment)
impl_name = scopedName.simple(cxx=1)
impl_tpl_name = impl_tplname (scopedName)
cxx_fqname = scopedName.fullyQualify()
hpp_class = self.toCppNamespace (scopedName).fullyQualify(cxx=1)
fqname = scopedName.fullyQualify(cxx = 0)
is_base_class = not bool(node.inherits())
ptr_t = self.toCppNamespace (scopedName.suffix("Ptr_t")).fullyQualify(cxx=1)
if is_base_class:
key = hpp_servant_name (scopedName)
impl_base_name = "ServantBase"
if key in self.storages:
st = self.storages[key]
# declare storage
self.interface_declarations.out(st.decl)
storage = st.sc.simple() + "< "+ptr_t+" >"
else:
storage = ptr_t
else:
baseScopedName = id.Name (node.inherits()[0].scopedName())
key = hpp_servant_name (baseScopedName)
impl_base_name = hpp_servant_name (baseScopedName.suffix('Servant'))
if key in self.storages:
st = self.storages[key]
storage = st.sc.simple() + "< "+ptr_t+" >"
self.storages[fqname] = st
else:
storage = ptr_t
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
operations = []
allCallables = node.callables()
# declarations contains a list of in-class decl signatures
# implementations contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = output.StringStream()
implementations = output.StringStream()
for c in allCallables:
comments = c.comments()
hpp_opname = None
comments_impl = []
for comment in comments:
if comment.text().startswith("// ") or comment.text().startswith("///"):
# Skip this comment
pass
elif comment.text().startswith("//*"):
if not comments_impl:
comments_impl.append (" // generated from {}:{}\n".format(node.file(), node.line()))
comments_impl.append (comment.text()[3:])
elif comment.text().startswith("//->"):
if hpp_opname is not None: raise makeError("Function was already renamed", comment.file(), comment.line())
hpp_opname = comment.text()[4:].strip()
if isinstance(c, idlast.Attribute):
attrType = types.Type(c.attrType())
d_attrType = attrType.deref()
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
declarations.out (template.operation_decl_code,
return_type = "void",
opname = attribname,
arg_defs = inType + " _" + attribname)
tmpVar, conv = self.argConversion ("_" + attribname, attrType, True, False, c)
implementations.out (template.operation_impl_code,
return_type = "void",
impl_tpl_name = impl_tpl_name,
opname = attribname,
hpp_opname = hpp_opname if hpp_opname else attribname,
arg_defs = inType + " _" + attribname,
conversions = conv if conv else "",
store_return = "",
do_return = "",
arg_calls = tmpVar)
declarations.out (template.operation_decl_code,
return_type = returnType,
opname = attribname,
arg_defs = "")
store_return, do_return = self.retConversion (attrType)
implementations.out (template.operation_impl_code,
return_type = returnType,
impl_tpl_name = impl_tpl_name,
opname = attribname,
hpp_opname = hpp_opname if hpp_opname else attribname,
arg_defs = "",
conversions = "",
store_return = store_return,
do_return = do_return,
arg_calls = "")
elif isinstance(c, idlast.Operation):
params = []
paramNames = []
conversions = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out = 0)
argname = id.mapID(p.identifier())
if not comments_impl:
tmpVar, conv = self.argConversion (argname, paramType, p.is_in(), p.is_out(), p)
if conv:
conversions.append(conv)
else:
tmpVar = argname
params.append(cxx_type + " " + argname)
paramNames.append(tmpVar)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
store_return, do_return = self.retConversion (types.Type(c.returnType()))
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
arguments = ", ".join(params)
argumentsCall = ", ".join(paramNames)
args = opname + "(" + arguments + ")"
declarations.out (template.operation_decl_code,
return_type = return_type,
opname = opname,
arg_defs = arguments)
if comments_impl:
implementations.out (template.provided_operation_impl_code,
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
implementation = "".join(comments_impl),
arg_defs = arguments,)
elif opname in template.predefined_operations_impl_code:
#assert not c.parameters(), "Interface operation str should not have arguments"
implementations.out (template.predefined_operations_impl_code[opname],
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
conversions = "\n ".join(conversions),
arg_defs = arguments,
store_return = store_return,
do_return = do_return,
arg_calls = argumentsCall)
else:
implementations.out (template.operation_impl_code,
return_type = return_type,
impl_tpl_name = impl_tpl_name,
opname = opname,
hpp_opname = hpp_opname if hpp_opname is not None else opname,
conversions = "\n ".join(conversions),
arg_defs = arguments,
store_return = store_return,
do_return = do_return,
arg_calls = argumentsCall)
else:
util.fatalError("Internal error generating interface member")
raise AssertionError("No code for interface member: "+repr(c))
openns, closens = namespaces(scopedName, self.environment)
# Output the _i class definition definition
self.interface_declarations.out(
template.base_interface_def if is_base_class else template.inherited_interface_def,
fq_name = fqname,
impl_tpl_name = impl_tpl_name,
impl_base_name = impl_base_name,
operations = str(declarations),
impl_name = impl_name,
fq_POA_name = "POA_" + cxx_fqname,
hpp_class = hpp_class,
storage = storage,
open_namespaces = openns,
close_namespaces = closens,
)
self.interface_implementations.out(
template.base_interface_code if is_base_class else template.inherited_interface_code,
fqname = fqname,
impl_name = impl_name,
impl_tpl_name = impl_tpl_name,
impl_base_name = impl_base_name,
hpp_class = hpp_class,
operations = str(implementations),
open_namespaces = openns,
close_namespaces = closens,
)
def visitInterface(self, node):
self.__allInterfaces.append(node)
scopedName = id.Name(node.scopedName())
cxx_fqname = scopedName.fullyQualify()
impl_flat_name = impl_fullname(scopedName)
fqname = scopedName.fullyQualify(cxx = 0)
# build methods corresponding to attributes, operations etc.
# attributes[] and operations[] will contain lists of function
# signatures eg
# [ char *echoString(const char *mesg) ]
attributes = []
operations = []
virtual_operations = []
# we need to consider all callables, including inherited ones
# since this implementation class is not inheriting from anywhere
# other than the IDL skeleton
allInterfaces = [node] + ast.allInherits(node)
allCallables = util.fold( map(lambda x:x.callables(), allInterfaces),
[], lambda x, y: x + y )
# declarations[] contains a list of in-class decl signatures
# implementations[] contains a list of out of line impl signatures
# (typically differ by classname::)
declarations = []
implementations = []
for c in allCallables:
if isinstance(c, idlast.Attribute) :
attrType = types.Type(c.attrType())
d_attrType = attrType.deref()
for i in c.identifiers():
attribname = id.mapID(i)
returnType = attrType.op(types.RET)
inType = attrType.op(types.IN)
attributes.append(returnType + " " + attribname + "()")
# need a set method if not a readonly attribute
if not c.readonly():
args = attribname + "(" + inType + ")"
declarations.append("void " + args)
implementations.append("void " + impl_flat_name +\
"::" + args)
if not attribname in self.ignore_operations:
declarations.append(returnType + " " + attribname + "()")
implementations.append(returnType + " " + impl_flat_name+\
"::" + attribname + "()")
elif isinstance(c, idlast.Operation):
params = []
for p in c.parameters():
paramType = types.Type(p.paramType())
cxx_type = paramType.op(types.direction(p), use_out = 0)
argname = id.mapID(p.identifier())
params.append(cxx_type + " " + argname)
# deal with possible "context"
if c.contexts() != []:
params.append("CORBA::Context_ptr _ctxt")
return_type = types.Type(c.returnType()).op(types.RET)
opname = id.mapID(c.identifier())
if not opname in self.ignore_operations:
arguments = string.join(params, ", ")
args = opname + "(" + arguments + ")"
declarations.append(return_type + " " + args)
implementations.append(return_type + " " + \
impl_flat_name + \
"::" + args)
else:
util.fatalError("Internal error generating interface member")
raise "No code for interface member: " + repr(c)
# the class definition has no actual code...
defs = string.join(map(lambda x:x + ";\n", declarations), "")
# Output the class definition of the implementation
self.stream_h.out(interface_def,
impl_fqname = impl_flat_name,
impl_name = impl_flat_name,
fq_name = fqname,
fq_POA_name = "POA_" + cxx_fqname,
operations = defs)
# Output the class methods implementations
impls = string.join(map(lambda x: x + """\
{
// Please insert your code here and remove the following warning pragma
#ifndef WIN32
#warning "Code missing in function <""" + x + """>"
#endif
}
""",
implementations), "")
self.stream_cpp.out(interface_code,
fqname = fqname,
impl_name = impl_flat_name,
impl_fqname = impl_flat_name,
operations = impls)
