def gen_name(name, name_list):
i = 0
tname = name + '_' + str(i)
while util.attrsearch(tname, 'i_xsd_name', name_list):
i = i + 1
tname = name + '_' + str(i)
return tname
def gen_name(name, name_list):
i = 0
tname = name + '_' + str(i)
while util.attrsearch(tname, 'i_xsd_name', name_list):
i = i + 1
tname = name + '_' + str(i)
return tname
def gen_new_typedef(module, new_type):
i = 0
name = "t" + str(i)
all_typedefs = module.search('typedef') + module.i_local_typedefs + \
module.i_gen_typedef
while util.attrsearch(name, 'arg', all_typedefs):
i = i + 1
name = "t" + str(i)
typedef = statements.Statement(module, module, new_type.pos, 'typedef',
name)
typedef.substmts.append(new_type)
module.i_gen_typedef.append(typedef)
return name
def print_augment(ctx, module, fd, indent, augment):
i = module.i_gen_augment_idx
name = "a" + str(i)
while util.attrsearch(name, 'arg', module.search('grouping')) != None:
i = i + 1
name = "a" + str(i)
module.i_gen_augment_idx = i + 1
fd.write(indent + '<xs:group name="%s">\n' % name)
print_description(fd, indent + ' ', augment.search_one('description'))
fd.write(indent + ' <xs:sequence>\n')
print_children(ctx, module, fd, augment.i_children, indent + ' ', [])
fd.write(indent + ' </xs:sequence>\n')
fd.write(indent + '</xs:group>\n')
def gen_new_typedef(module, new_type):
i = 0
name = "t" + str(i)
all_typedefs = module.search('typedef') + module.i_local_typedefs + \
module.i_gen_typedef
while util.attrsearch(name, 'arg', all_typedefs):
i = i + 1
name = "t" + str(i)
typedef = statements.Statement(module, module, new_type.pos,
'typedef', name)
typedef.substmts.append(new_type)
module.i_gen_typedef.append(typedef)
return name
def print_augment(ctx, module, fd, indent, augment):
i = module.i_gen_augment_idx
name = "a" + str(i)
while util.attrsearch(name, 'arg', module.search('grouping')) != None:
i = i + 1
name = "a" + str(i)
module.i_gen_augment_idx = i + 1
fd.write(indent + '<xs:group name="%s">\n' % name)
print_description(fd, indent + ' ', augment.search_one('description'))
fd.write(indent + ' <xs:sequence>\n')
print_children(ctx, module, fd, augment.i_children,
indent + ' ', [])
fd.write(indent + ' </xs:sequence>\n')
fd.write(indent + '</xs:group>\n')
def v_reference_complex_type(ctx, stmt):
"""Validate the key of the complex type"""
key = stmt.search_one('key')
if key is not None:
# check that the key has not been defined in the base type
basetype = stmt.i_base_type
while basetype is not None:
basekey = basetype.search_one('key')
if basekey is not None:
err_add(ctx.errors, key.pos, "REDEFINED_KEY",
(stmt.arg, basetype.arg, basekey.pos))
return
basetype = basetype.i_base_type
# check the references to the leafs
# this part is based on the source code for the list's key validation
stmt.i_key = []
if key is not None:
found = []
for x in key.arg.split():
if x == '':
continue
if x.find(":") == -1:
name = x
else:
[prefix, name] = x.split(':', 1)
if prefix != stmt.i_module.i_prefix:
err_add(ctx.errors, key.pos, 'BAD_KEY', x)
return
ptr = attrsearch(name, 'arg', stmt.i_children)
if x in found:
err_add(ctx.errors, key.pos, 'DUPLICATE_KEY', x)
return
elif ((ptr is None) or (ptr.keyword != 'leaf')):
err_add(ctx.errors, key.pos, 'BAD_KEY', x)
return
type = ptr.search_one('type')
if type is not None:
t = statements.has_type(type, ['empty'])
if t is not None:
err_add(ctx.errors, key.pos, 'BAD_TYPE_IN_KEY',
(t.arg, x))
return
default = ptr.search_one('default')
if default is not None:
err_add(ctx.errors, default.pos, 'KEY_HAS_DEFAULT', ())
stmt.i_key.append(ptr)
found.append(x)