Merge branch 'development'

This commit is contained in:
Andrei Bondarenko 2021-08-27 09:49:31 +02:00
commit d2b0bb2f55
26 changed files with 1810 additions and 21 deletions

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from services.scd import SCD
from uuid import UUID
from state.base import State
def bootstrap_pn(state: State, model_name: str) -> UUID:
# Retrieve scd model
scd_id = state.read_dict(state.read_root(), "SCD")
scd = UUID(state.read_value(scd_id))
# Retrieve refs to primitive type models
# # integer
int_type_id = state.read_dict(state.read_root(), "Integer")
int_type = UUID(state.read_value(int_type_id))
# # string
str_type_id = state.read_dict(state.read_root(), "String")
str_type = UUID(state.read_value(str_type_id))
# Create LTM_PN
model_uuid = state.create_node()
mcl_root_id = state.create_nodevalue(str(model_uuid))
state.create_dict(state.read_root(), model_name, mcl_root_id)
service = SCD(model_uuid, state)
# Create classes
service.create_class("P")
service.create_class("T")
# Create associations
service.create_association("P2T", "P", "T")
service.create_association("T2P", "T", "P")
# Create model refs
service.create_model_ref("Integer", int_type)
service.create_model_ref("String", str_type)
# Create class attributes
service.create_attribute_link("P", "Integer", "t", False)
service.create_attribute_link("P", "String", "n", False)
service.create_attribute_link("T", "String", "name", False)
# Create association attributes
service.create_attribute_link("P2T", "Integer", "weight", False)
service.create_attribute_link("T2P", "Integer", "weight", False)
# Create test constraint
service.add_constraint("P", "True")
return model_uuid

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from state.base import State, UUID
from services.bottom.V0 import Bottom
from services.primitives.integer_type import Integer
def bootstrap_type(type_name: str, python_type: str, scd_root: UUID, model_root: UUID, state: State):
bottom = Bottom(state)
# create class
class_node = bottom.create_node() # create class node
bottom.create_edge(model_root, class_node, type_name) # attach to model
scd_node, = bottom.read_outgoing_elements(scd_root, "Class") # retrieve type
bottom.create_edge(class_node, scd_node, "Morphism") # create morphism link
# set min_cardinality
min_c_model = bottom.create_node()
Integer(min_c_model, state).create(1)
min_c_node = bottom.create_node(str(min_c_model))
bottom.create_edge(model_root, min_c_node, f"{type_name}.lower_cardinality")
min_c_link = bottom.create_edge(class_node, min_c_node)
bottom.create_edge(model_root, min_c_link, f"{type_name}.lower_cardinality_link")
scd_node, = bottom.read_outgoing_elements(scd_root, "Integer")
scd_link, = bottom.read_outgoing_elements(scd_root, "Class_lower_cardinality")
bottom.create_edge(min_c_node, scd_node, "Morphism")
bottom.create_edge(min_c_link, scd_link, "Morphism")
# set max_cardinality
max_c_model = bottom.create_node()
Integer(max_c_model, state).create(1)
max_c_node = bottom.create_node(str(max_c_model))
bottom.create_edge(model_root, max_c_node, f"{type_name}.upper_cardinality")
max_c_link = bottom.create_edge(class_node, max_c_node)
bottom.create_edge(model_root, max_c_link, f"{type_name}.upper_cardinality_link")
scd_node, = bottom.read_outgoing_elements(scd_root, "Integer")
scd_link, = bottom.read_outgoing_elements(scd_root, "Class_upper_cardinality")
bottom.create_edge(max_c_node, scd_node, "Morphism")
bottom.create_edge(max_c_link, scd_link, "Morphism")
# set constraint
constraint_node = bottom.create_node(f"isinstance(read_value(element),{python_type})")
bottom.create_edge(model_root, constraint_node, f"{type_name}.constraint")
constraint_link = bottom.create_edge(class_node, constraint_node)
bottom.create_edge(model_root, constraint_link, f"{type_name}.constraint_link")
scd_node, = bottom.read_outgoing_elements(scd_root, "ActionCode")
scd_link, = bottom.read_outgoing_elements(scd_root, "Element_constraint")
bottom.create_edge(constraint_node, scd_node, "Morphism")
bottom.create_edge(constraint_link, scd_link, "Morphism")
def bootstrap_type_type(scd_root: UUID, model_root: UUID, state: State):
bootstrap_type("Type", "tuple", scd_root, model_root, state)
def bootstrap_boolean_type(scd_root: UUID, model_root: UUID, state: State):
bootstrap_type("Boolean", "bool", scd_root, model_root, state)
def bootstrap_integer_type(scd_root: UUID, model_root: UUID, state: State):
bootstrap_type("Integer", "int", scd_root, model_root, state)
def bootstrap_float_type(scd_root: UUID, model_root: UUID, state: State):
bootstrap_type("Float", "float", scd_root, model_root, state)
def bootstrap_string_type(scd_root: UUID, model_root: UUID, state: State):
bootstrap_type("String", "str", scd_root, model_root, state)

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from state.base import State, UUID
from services.bottom.V0 import Bottom
from services.primitives.boolean_type import Boolean
from services.primitives.string_type import String
from bootstrap.primitive import (
bootstrap_boolean_type,
bootstrap_float_type,
bootstrap_integer_type,
bootstrap_string_type,
bootstrap_type_type
)
def create_model_root(bottom: Bottom, model_name: str) -> UUID:
model_root = bottom.create_node()
mcl_root_id = bottom.create_node(value=str(model_root))
bottom.create_edge(bottom.state.read_root(), mcl_root_id, label=model_name)
return model_root
def bootstrap_scd(state: State) -> UUID:
# init model roots and store their UUIDs attached to state root
bottom = Bottom(state)
mcl_root = create_model_root(bottom, "SCD")
# Create model roots for primitive types
integer_type_root = create_model_root(bottom, "Integer")
boolean_type_root = create_model_root(bottom, "Boolean")
string_type_root = create_model_root(bottom, "String")
float_type_root = create_model_root(bottom, "Float")
type_type_root = create_model_root(bottom, "Type")
# create MCL, without morphism links
def add_node_element(element_name, node_value=None):
""" Helper function, adds node to model with given name and value """
_node = bottom.create_node(value=node_value)
bottom.create_edge(mcl_root, _node, element_name)
return _node
def add_edge_element(element_name, source, target):
""" Helper function, adds edge to model with given name """
_edge = bottom.create_edge(source, target)
bottom.create_edge(mcl_root, _edge, element_name)
return _edge
def add_attribute_attributes(attribute_element_name, attribute_element):
_name_model = bottom.create_node()
_name_node = add_node_element(f"{attribute_element_name}.name", str(_name_model))
_name_edge = add_edge_element(f"{attribute_element_name}.name_link", attribute_element, _name_node)
_optional_model = bottom.create_node()
_optional_node = add_node_element(f"{attribute_element_name}.optional", str(_optional_model))
_optional_edge = add_edge_element(f"{attribute_element_name}.optional_link", attribute_element, _optional_node)
return _name_model, _optional_model
# # CLASSES, i.e. elements typed by Class
# # Element
element_node = add_node_element("Element")
# # Class
class_node = add_node_element("Class")
# # Attribute
attr_node = add_node_element("Attribute")
# # ModelRef
model_ref_node = add_node_element("ModelRef")
# # Global Constraint
glob_constr_node = add_node_element("GlobalConstraint")
# # ASSOCIATIONS, i.e. elements typed by Association
# # Association
assoc_edge = add_edge_element("Association", class_node, class_node)
# # Inheritance
inh_edge = add_edge_element("Inheritance", element_node, element_node)
# # Attribute Link
attr_link_edge = add_edge_element("AttributeLink", element_node, attr_node)
# # INHERITANCES, i.e. elements typed by Inheritance
# # Class inherits from Element
add_edge_element("class_inh_element", class_node, element_node)
# # GlobalConstraint inherits from Element
add_edge_element("gc_inh_element", glob_constr_node, element_node)
# # Attribute inherits from Element
add_edge_element("attr_inh_element", attr_node, element_node)
# # Association inherits from Element
add_edge_element("assoc_inh_element", assoc_edge, element_node)
# # AttributeLink inherits from Element
add_edge_element("attr_link_inh_element", attr_link_edge, element_node)
# # ModelRef inherits from Attribute
add_edge_element("model_ref_inh_attr", model_ref_node, attr_node)
# # ATTRIBUTES, i.e. elements typed by Attribute
# # Action Code # TODO: Update to ModelRef when action code is explicitly modelled
action_code_node = add_node_element("ActionCode")
# # MODELREFS, i.e. elements typed by ModelRef
# # Integer
integer_node = add_node_element("Integer", str(integer_type_root))
# # String
string_node = add_node_element("String", str(string_type_root))
# # Boolean
boolean_node = add_node_element("Boolean", str(boolean_type_root))
# # ATTRIBUTE LINKS, i.e. elements typed by AttributeLink
# # name attribute of AttributeLink
attr_name_edge = add_edge_element("AttributeLink_name", attr_link_edge, string_node)
# # optional attribute of AttributeLink
attr_opt_edge = add_edge_element("AttributeLink_optional", attr_link_edge, boolean_node)
# # constraint attribute of Element
elem_constr_edge = add_edge_element("Element_constraint", element_node, action_code_node)
# # abstract attribute of Class
class_abs_edge = add_edge_element("Class_abstract", class_node, boolean_node)
# # multiplicity attributes of Class
class_l_c_edge = add_edge_element("Class_lower_cardinality", class_node, integer_node)
class_u_c_edge = add_edge_element("Class_upper_cardinality", class_node, integer_node)
# # multiplicity attributes of Association
assoc_s_l_c_edge = add_edge_element("Association_source_lower_cardinality", assoc_edge, integer_node)
assoc_s_u_c_edge = add_edge_element("Association_source_upper_cardinality", assoc_edge, integer_node)
assoc_t_l_c_edge = add_edge_element("Association_target_lower_cardinality", assoc_edge, integer_node)
assoc_t_u_c_edge = add_edge_element("Association_target_upper_cardinality", assoc_edge, integer_node)
# # bootstrap primitive types
# # order is important, integer must be first
bootstrap_integer_type(mcl_root, integer_type_root, state)
bootstrap_boolean_type(mcl_root, boolean_type_root, state)
bootstrap_float_type(mcl_root, float_type_root, state)
bootstrap_string_type(mcl_root, string_type_root, state)
bootstrap_type_type(mcl_root, type_type_root, state)
# # ATTRIBUTE ATTRIBUTES, assign 'name' and 'optional' attributes to all AttributeLinks
# # AttributeLink_name
m_name, m_opt = add_attribute_attributes("AttributeLink_name", attr_name_edge)
String(m_name, state).create("name")
Boolean(m_opt, state).create(False)
# # AttributeLink_opt
m_name, m_opt = add_attribute_attributes("AttributeLink_optional", attr_opt_edge)
String(m_name, state).create("optional")
Boolean(m_opt, state).create(False)
# # Element_constraint
m_name, m_opt = add_attribute_attributes("Element_constraint", elem_constr_edge)
String(m_name, state).create("constraint")
Boolean(m_opt, state).create(True)
# # Class_abstract
m_name, m_opt = add_attribute_attributes("Class_abstract", class_abs_edge)
String(m_name, state).create("abstract")
Boolean(m_opt, state).create(True)
# # Class_lower_cardinality
m_name, m_opt = add_attribute_attributes("Class_lower_cardinality", class_l_c_edge)
String(m_name, state).create("lower_cardinality")
Boolean(m_opt, state).create(True)
# # Class_upper_cardinality
m_name, m_opt = add_attribute_attributes("Class_upper_cardinality", class_u_c_edge)
String(m_name, state).create("upper_cardinality")
Boolean(m_opt, state).create(True)
# # Association_source_lower_cardinality
m_name, m_opt = add_attribute_attributes("Association_source_lower_cardinality", assoc_s_l_c_edge)
String(m_name, state).create("source_lower_cardinality")
Boolean(m_opt, state).create(True)
# # Association_source_upper_cardinality
m_name, m_opt = add_attribute_attributes("Association_source_upper_cardinality", assoc_s_u_c_edge)
String(m_name, state).create("source_upper_cardinality")
Boolean(m_opt, state).create(True)
# # Association_target_lower_cardinality
m_name, m_opt = add_attribute_attributes("Association_target_lower_cardinality", assoc_t_l_c_edge)
String(m_name, state).create("target_lower_cardinality")
Boolean(m_opt, state).create(True)
# # Association_target_upper_cardinality
m_name, m_opt = add_attribute_attributes("Association_target_upper_cardinality", assoc_t_u_c_edge)
String(m_name, state).create("target_upper_cardinality")
Boolean(m_opt, state).create(True)
# # Make Element abstract
abs_model = bottom.create_node()
abs_node = add_node_element(f"Element.abstract", str(abs_model))
abs_edge = add_edge_element(f"Element.abstract_link", element_node, abs_node)
Boolean(abs_model, state).create(True)
# create phi(SCD,SCD) to type MCL with itself
def add_mcl_morphism(element_name, type_name):
# get elements from mcl by name
_element_edge, = bottom.read_outgoing_edges(mcl_root, element_name)
_element_node = bottom.read_edge_target(_element_edge)
_type_edge, = bottom.read_outgoing_edges(mcl_root, type_name)
_type_node = bottom.read_edge_target(_type_edge)
# create morphism link
bottom.create_edge(_element_node, _type_node, "Morphism")
# Class
add_mcl_morphism("Element", "Class")
add_mcl_morphism("Class", "Class")
add_mcl_morphism("Attribute", "Class")
add_mcl_morphism("ModelRef", "Class")
add_mcl_morphism("GlobalConstraint", "Class")
# Association
add_mcl_morphism("Association", "Association")
add_mcl_morphism("Inheritance", "Association")
add_mcl_morphism("AttributeLink", "Association")
# Inheritance
add_mcl_morphism("class_inh_element", "Inheritance")
add_mcl_morphism("gc_inh_element", "Inheritance")
add_mcl_morphism("attr_inh_element", "Inheritance")
add_mcl_morphism("assoc_inh_element", "Inheritance")
add_mcl_morphism("attr_link_inh_element", "Inheritance")
add_mcl_morphism("model_ref_inh_attr", "Inheritance")
# Attribute
add_mcl_morphism("ActionCode", "Attribute")
# ModelRef
add_mcl_morphism("Integer", "ModelRef")
add_mcl_morphism("String", "ModelRef")
add_mcl_morphism("Boolean", "ModelRef")
# AttributeLink
add_mcl_morphism("AttributeLink_name", "AttributeLink")
add_mcl_morphism("AttributeLink_optional", "AttributeLink")
add_mcl_morphism("Element_constraint", "AttributeLink")
add_mcl_morphism("Class_abstract", "AttributeLink")
add_mcl_morphism("Class_lower_cardinality", "AttributeLink")
add_mcl_morphism("Class_upper_cardinality", "AttributeLink")
add_mcl_morphism("Association_source_lower_cardinality", "AttributeLink")
add_mcl_morphism("Association_source_upper_cardinality", "AttributeLink")
add_mcl_morphism("Association_target_lower_cardinality", "AttributeLink")
add_mcl_morphism("Association_target_upper_cardinality", "AttributeLink")
# AttributeLink_name
add_mcl_morphism("AttributeLink_name.name_link", "AttributeLink_name")
add_mcl_morphism("AttributeLink_optional.name_link", "AttributeLink_name")
add_mcl_morphism("Element_constraint.name_link", "AttributeLink_name")
add_mcl_morphism("Class_abstract.name_link", "AttributeLink_name")
add_mcl_morphism("Class_lower_cardinality.name_link", "AttributeLink_name")
add_mcl_morphism("Class_upper_cardinality.name_link", "AttributeLink_name")
add_mcl_morphism("Association_source_lower_cardinality.name_link", "AttributeLink_name")
add_mcl_morphism("Association_source_upper_cardinality.name_link", "AttributeLink_name")
add_mcl_morphism("Association_target_lower_cardinality.name_link", "AttributeLink_name")
add_mcl_morphism("Association_target_upper_cardinality.name_link", "AttributeLink_name")
# AttributeLink_optional
add_mcl_morphism("AttributeLink_name.optional_link", "AttributeLink_optional")
add_mcl_morphism("AttributeLink_optional.optional_link", "AttributeLink_optional")
add_mcl_morphism("Element_constraint.optional_link", "AttributeLink_optional")
add_mcl_morphism("Class_abstract.optional_link", "AttributeLink_optional")
add_mcl_morphism("Class_lower_cardinality.optional_link", "AttributeLink_optional")
add_mcl_morphism("Class_upper_cardinality.optional_link", "AttributeLink_optional")
add_mcl_morphism("Association_source_lower_cardinality.optional_link", "AttributeLink_optional")
add_mcl_morphism("Association_source_upper_cardinality.optional_link", "AttributeLink_optional")
add_mcl_morphism("Association_target_lower_cardinality.optional_link", "AttributeLink_optional")
add_mcl_morphism("Association_target_upper_cardinality.optional_link", "AttributeLink_optional")
# String
add_mcl_morphism("AttributeLink_name.name", "String")
add_mcl_morphism("AttributeLink_optional.name", "String")
add_mcl_morphism("Element_constraint.name", "String")
add_mcl_morphism("Class_abstract.name", "String")
add_mcl_morphism("Class_lower_cardinality.name", "String")
add_mcl_morphism("Class_upper_cardinality.name", "String")
add_mcl_morphism("Association_source_lower_cardinality.name", "String")
add_mcl_morphism("Association_source_upper_cardinality.name", "String")
add_mcl_morphism("Association_target_lower_cardinality.name", "String")
add_mcl_morphism("Association_target_upper_cardinality.name", "String")
# Boolean
add_mcl_morphism("AttributeLink_name.optional", "Boolean")
add_mcl_morphism("AttributeLink_optional.optional", "Boolean")
add_mcl_morphism("Element_constraint.optional", "Boolean")
add_mcl_morphism("Class_abstract.optional", "Boolean")
add_mcl_morphism("Class_lower_cardinality.optional", "Boolean")
add_mcl_morphism("Class_upper_cardinality.optional", "Boolean")
add_mcl_morphism("Association_source_lower_cardinality.optional", "Boolean")
add_mcl_morphism("Association_source_upper_cardinality.optional", "Boolean")
add_mcl_morphism("Association_target_lower_cardinality.optional", "Boolean")
add_mcl_morphism("Association_target_upper_cardinality.optional", "Boolean")
add_mcl_morphism("Element.abstract", "Boolean")
# Class_abstract
add_mcl_morphism("Element.abstract_link", "Class_abstract")
return mcl_root
if __name__ == '__main__':
from state.devstate import DevState as State
s = State()
bootstrap_scd(s)
r = s.read_root()
for n in s.read_dict_keys(r):
print(s.read_value(n))

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from services.bottom.V0 import Bottom
from uuid import UUID
from state.base import State
from typing import Dict, Tuple, Set, Any, List
from pprint import pprint
class Conformance:
def __init__(self, state: State, model: UUID, type_model: UUID):
self.state = state
self.bottom = Bottom(state)
type_model_id = state.read_dict(state.read_root(), "SCD")
self.scd_model = UUID(state.read_value(type_model_id))
self.model = model
self.type_model = type_model
self.type_mapping: Dict[str, str] = {}
self.model_names = {
# map model elements to their names to prevent iterating too much
self.bottom.read_outgoing_elements(self.model, e)[0]: e
for e in self.bottom.read_keys(self.model)
}
self.type_model_names = {
# map type model elements to their names to prevent iterating too much
self.bottom.read_outgoing_elements(self.type_model, e)[0]: e
for e in self.bottom.read_keys(self.type_model)
}
self.sub_types: Dict[str, Set[str]] = {
k: set() for k in self.bottom.read_keys(self.type_model)
}
self.primitive_values: Dict[UUID, Any] = {}
self.abstract_types: List[str] = []
self.multiplicities: Dict[str, Tuple] = {}
self.source_multiplicities: Dict[str, Tuple] = {}
self.target_multiplicities: Dict[str, Tuple] = {}
self.structures = {}
self.matches = {}
self.candidates = {}
def check_nominal(self, *, log=False):
try:
self.check_typing()
self.check_link_typing()
self.check_multiplicities()
self.check_constraints()
return True
except RuntimeError as e:
if log:
print(e)
return False
def check_structural(self, *, build_morphisms=True, log=False):
try:
self.precompute_structures()
self.match_structures()
if build_morphisms:
self.build_morphisms()
self.check_nominal(log=log)
return True
except RuntimeError as e:
if log:
print(e)
return False
def read_attribute(self, element: UUID, attr_name: str):
if element in self.type_model_names:
# type model element
element_name = self.type_model_names[element]
model = self.type_model
else:
# model element
element_name = self.model_names[element]
model = self.model
try:
attr_elem, = self.bottom.read_outgoing_elements(model, f"{element_name}.{attr_name}")
return self.primitive_values.get(attr_elem, self.bottom.read_value(attr_elem))
except ValueError:
return None
def precompute_sub_types(self):
inh_element, = self.bottom.read_outgoing_elements(self.scd_model, "Inheritance")
inh_links = []
for tm_element, tm_name in self.type_model_names.items():
morphisms = self.bottom.read_outgoing_elements(tm_element, "Morphism")
if inh_element in morphisms:
inh_links.append(tm_element)
for link in inh_links:
tm_source = self.bottom.read_edge_source(link)
tm_target = self.bottom.read_edge_target(link)
parent_name = self.type_model_names[tm_target]
child_name = self.type_model_names[tm_source]
self.sub_types[parent_name].add(child_name)
stop = False
while not stop:
stop = True
for child_name, child_children in self.sub_types.items():
for parent_name, parent_children in self.sub_types.items():
if child_name in parent_children:
original_size = len(parent_children)
parent_children.update(child_children)
if len(parent_children) != original_size:
stop = False
def deref_primitive_values(self):
ref_element, = self.bottom.read_outgoing_elements(self.scd_model, "ModelRef")
string_element, = self.bottom.read_outgoing_elements(self.scd_model, "String")
boolean_element, = self.bottom.read_outgoing_elements(self.scd_model, "Boolean")
integer_element, = self.bottom.read_outgoing_elements(self.scd_model, "Integer")
t_deref = []
t_refs = []
for tm_element, tm_name in self.type_model_names.items():
morphisms = self.bottom.read_outgoing_elements(tm_element, "Morphism")
if ref_element in morphisms:
t_refs.append(self.type_model_names[tm_element])
elif string_element in morphisms:
t_deref.append(tm_element)
elif boolean_element in morphisms:
t_deref.append(tm_element)
elif integer_element in morphisms:
t_deref.append(tm_element)
for elem in t_deref:
primitive_model = UUID(self.bottom.read_value(elem))
primitive_value_node, = self.bottom.read_outgoing_elements(primitive_model)
primitive_value = self.bottom.read_value(primitive_value_node)
self.primitive_values[elem] = primitive_value
for m_name, tm_name in self.type_mapping.items():
if tm_name in t_refs:
# dereference
m_element, = self.bottom.read_outgoing_elements(self.model, m_name)
primitive_model = UUID(self.bottom.read_value(m_element))
try:
primitive_value_node, = self.bottom.read_outgoing_elements(primitive_model)
primitive_value = self.bottom.read_value(primitive_value_node)
self.primitive_values[m_element] = primitive_value
except ValueError:
pass # multiple elements in model indicate that we're not dealing with a primitive
def precompute_multiplicities(self):
for tm_element, tm_name in self.type_model_names.items():
# class abstract flags and multiplicities
abstract = self.read_attribute(tm_element, "abstract")
lc = self.read_attribute(tm_element, "lower_cardinality")
uc = self.read_attribute(tm_element, "upper_cardinality")
if abstract:
self.abstract_types.append(tm_name)
if lc or uc:
mult = (
lc if lc is not None else float("-inf"),
uc if uc is not None else float("inf")
)
self.multiplicities[tm_name] = mult
# multiplicities for associations
slc = self.read_attribute(tm_element, "source_lower_cardinality")
suc = self.read_attribute(tm_element, "source_upper_cardinality")
if slc or suc:
mult = (
slc if slc is not None else float("-inf"),
suc if suc is not None else float("inf")
)
self.source_multiplicities[tm_name] = mult
tlc = self.read_attribute(tm_element, "target_lower_cardinality")
tuc = self.read_attribute(tm_element, "target_upper_cardinality")
if tlc or tuc:
mult = (
tlc if tlc is not None else float("-inf"),
tuc if tuc is not None else float("inf")
)
self.target_multiplicities[tm_name] = mult
# optional for attribute links
opt = self.read_attribute(tm_element, "optional")
if opt is not None:
self.source_multiplicities[tm_name] = (0 if opt else 1, 1)
self.target_multiplicities[tm_name] = (0, 1)
def get_type(self, element: UUID):
morphisms = self.bottom.read_outgoing_elements(element, "Morphism")
tm_element, = [m for m in morphisms if m in self.type_model_names.keys()]
return tm_element
def check_typing(self):
"""
for each element of model check whether a morphism
link exists to some element of type_model
"""
ref_element, = self.bottom.read_outgoing_elements(self.scd_model, "ModelRef")
model_names = self.bottom.read_keys(self.model)
for m_name in model_names:
m_element, = self.bottom.read_outgoing_elements(self.model, m_name)
try:
tm_element = self.get_type(m_element)
tm_name = self.type_model_names[tm_element]
self.type_mapping[m_name] = tm_name
if ref_element in self.bottom.read_outgoing_elements(tm_element, "Morphism"):
sub_m = UUID(self.bottom.read_value(m_element))
sub_tm = UUID(self.bottom.read_value(tm_element))
if not Conformance(self.state, sub_m, sub_tm).check_nominal():
raise RuntimeError(f"Incorrectly model reference: {m_name}")
except ValueError:
# no or too many morphism links found
raise RuntimeError(f"Incorrectly typed element: {m_name}")
return True
def check_link_typing(self):
self.precompute_sub_types()
for m_name, tm_name in self.type_mapping.items():
m_element, = self.bottom.read_outgoing_elements(self.model, m_name)
m_source = self.bottom.read_edge_source(m_element)
m_target = self.bottom.read_edge_target(m_element)
if m_source is None or m_target is None:
# element is not a link
continue
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
tm_source = self.bottom.read_edge_source(tm_element)
tm_target = self.bottom.read_edge_target(tm_element)
# check if source is typed correctly
source_name = self.model_names[m_source]
source_type_actual = self.type_mapping[source_name]
source_type_expected = self.type_model_names[tm_source]
if source_type_actual != source_type_expected:
if source_type_actual not in self.sub_types[source_type_expected]:
raise RuntimeError(f"Invalid source type {source_type_actual} for element {m_name}")
# check if target is typed correctly
target_name = self.model_names[m_target]
target_type_actual = self.type_mapping[target_name]
target_type_expected = self.type_model_names[tm_target]
if target_type_actual != target_type_expected:
if target_type_actual not in self.sub_types[target_type_expected]:
raise RuntimeError(f"Invalid target type {target_type_actual} for element {m_name}")
return True
def check_multiplicities(self):
self.deref_primitive_values()
self.precompute_multiplicities()
for tm_name in self.type_model_names.values():
# abstract classes
if tm_name in self.abstract_types:
type_count = list(self.type_mapping.values()).count(tm_name)
if type_count > 0:
raise RuntimeError(f"Invalid instantiation of abstract class: {tm_name}")
# class multiplicities
if tm_name in self.multiplicities:
lc, uc = self.multiplicities[tm_name]
type_count = list(self.type_mapping.values()).count(tm_name)
for sub_type in self.sub_types[tm_name]:
type_count += list(self.type_mapping.values()).count(sub_type)
if type_count < lc or type_count > uc:
raise RuntimeError(f"Cardinality of type exceeds valid multiplicity range: {tm_name} ({type_count})")
# association source multiplicities
if tm_name in self.source_multiplicities:
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
tm_source_element = self.bottom.read_edge_source(tm_element)
tm_source_name = self.type_model_names[tm_source_element]
lc, uc = self.source_multiplicities[tm_name]
for i, t in self.type_mapping.items():
if t == tm_source_name or t in self.sub_types[tm_source_name]:
count = 0
i_element, = self.bottom.read_outgoing_elements(self.model, i)
outgoing = self.bottom.read_outgoing_edges(i_element)
for o in outgoing:
try:
if self.type_mapping[self.model_names[o]] == tm_name:
count += 1
except KeyError:
pass # for elements not part of model, e.g. morphism links
if count < lc or count > uc:
raise RuntimeError(f"Source cardinality of type {tm_name} exceeds valid multiplicity range in {i}.")
# association target multiplicities
if tm_name in self.target_multiplicities:
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
tm_target_element = self.bottom.read_edge_target(tm_element)
tm_target_name = self.type_model_names[tm_target_element]
lc, uc = self.target_multiplicities[tm_name]
for i, t in self.type_mapping.items():
if t == tm_target_name or t in self.sub_types[tm_target_name]:
count = 0
i_element, = self.bottom.read_outgoing_elements(self.model, i)
outgoing = self.bottom.read_incoming_edges(i_element)
for o in outgoing:
try:
if self.type_mapping[self.model_names[o]] == tm_name:
count += 1
except KeyError:
pass # for elements not part of model, e.g. morphism links
if count < lc or count > uc:
print(f"Target cardinality of type {tm_name} exceeds valid multiplicity range in {i}.")
return False
return True
def evaluate_constraint(self, code, **kwargs):
funcs = {
'read_value': self.state.read_value
}
return eval(
code,
{'__builtins__': {'isinstance': isinstance, 'print': print,
'int': int, 'float': float, 'bool': bool, 'str': str, 'tuple': tuple}
}, # globals
{**kwargs, **funcs} # locals
)
def check_constraints(self):
# local constraints
for m_name, tm_name in self.type_mapping.items():
if tm_name != "GlobalConstraint":
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
code = self.read_attribute(tm_element, "constraint")
if code is not None:
morphisms = self.bottom.read_incoming_elements(tm_element, "Morphism")
morphisms = [m for m in morphisms if m in self.model_names]
for m_element in morphisms:
if not self.evaluate_constraint(code, element=m_element):
raise RuntimeError(f"Local constraint of {tm_name} not satisfied in {m_name}.")
# global constraints
for m_name, tm_name in self.type_mapping.items():
if tm_name == "GlobalConstraint":
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
code = self.read_attribute(tm_element, "constraint")
if code is not None:
if not self.evaluate_constraint(code, model=self.model):
raise RuntimeError(f"Global constraint {tm_name} not satisfied.")
return True
def precompute_structures(self):
self.precompute_sub_types()
scd_elements = self.bottom.read_outgoing_elements(self.scd_model)
# collect types
class_element, = self.bottom.read_outgoing_elements(self.scd_model, "Class")
association_element, = self.bottom.read_outgoing_elements(self.scd_model, "Association")
for tm_element, tm_name in self.type_model_names.items():
# retrieve elements that tm_element is a morphism of
morphisms = self.bottom.read_outgoing_elements(tm_element, "Morphism")
morphism, = [m for m in morphisms if m in scd_elements]
# check if tm_element is a morphism of AttributeLink
if class_element == morphism or association_element == morphism:
self.structures[tm_name] = set()
# collect type structures
# retrieve AttributeLink to check whether element is a morphism of AttributeLink
attr_link_element, = self.bottom.read_outgoing_elements(self.scd_model, "AttributeLink")
for tm_element, tm_name in self.type_model_names.items():
# retrieve elements that tm_element is a morphism of
morphisms = self.bottom.read_outgoing_elements(tm_element, "Morphism")
morphism, = [m for m in morphisms if m in scd_elements]
# check if tm_element is a morphism of AttributeLink
if attr_link_element == morphism:
# retrieve attributes of attribute link, i.e. 'name' and 'optional'
attrs = self.bottom.read_outgoing_elements(tm_element)
name_model_node, = filter(lambda x: self.type_model_names.get(x, "").endswith(".name"), attrs)
opt_model_node, = filter(lambda x: self.type_model_names.get(x, "").endswith(".optional"), attrs)
# get attr name value
name_model = UUID(self.bottom.read_value(name_model_node))
name_node, = self.bottom.read_outgoing_elements(name_model)
name = self.bottom.read_value(name_node)
# get attr opt value
opt_model = UUID(self.bottom.read_value(opt_model_node))
opt_node, = self.bottom.read_outgoing_elements(opt_model)
opt = self.bottom.read_value(opt_node)
# get attr type name
source_type_node = self.bottom.read_edge_source(tm_element)
source_type_name = self.type_model_names[source_type_node]
target_type_node = self.bottom.read_edge_target(tm_element)
target_type_name = self.type_model_names[target_type_node]
# add attribute to the structure of its source type
# attribute is stored as a (name, optional, type) triple
self.structures.setdefault(source_type_name, set()).add((name, opt, target_type_name))
# extend structures of sub types with attrs of super types
for super_type, sub_types in self.sub_types.items():
for sub_type in sub_types:
self.structures.setdefault(sub_type, set()).update(self.structures[super_type])
# filter out abstract types, as they cannot be instantiated
# retrieve Class_abstract to check whether element is a morphism of Class_abstract
class_abs_element, = self.bottom.read_outgoing_elements(self.scd_model, "Class_abstract")
for tm_element, tm_name in self.type_model_names.items():
# retrieve elements that tm_element is a morphism of
morphisms = self.bottom.read_outgoing_elements(tm_element, "Morphism")
morphism, = [m for m in morphisms if m in scd_elements]
# check if tm_element is a morphism of Class_abstract
if class_abs_element == morphism:
# retrieve 'abstract' attribute value
target_node = self.bottom.read_edge_target(tm_element)
abst_model = UUID(self.bottom.read_value(target_node))
abst_node, = self.bottom.read_outgoing_elements(abst_model)
is_abstract = self.bottom.read_value(abst_node)
# retrieve type name
source_node = self.bottom.read_edge_source(tm_element)
type_name = self.type_model_names[source_node]
if is_abstract:
self.structures.pop(type_name)
def match_structures(self):
ref_element, = self.bottom.read_outgoing_elements(self.scd_model, "ModelRef")
# matching
for m_element, m_name in self.model_names.items():
is_edge = self.bottom.read_edge_source(m_element) is not None
for type_name, structure in self.structures.items():
tm_element, = self.bottom.read_outgoing_elements(self.type_model, type_name)
type_is_edge = self.bottom.read_edge_source(tm_element) is not None
if is_edge == type_is_edge:
matched = 0
for name, optional, attr_type in structure:
try:
attr, = self.bottom.read_outgoing_elements(self.model, f"{m_name}.{name}")
attr_tm, = self.bottom.read_outgoing_elements(self.type_model, attr_type)
# if attribute is a modelref, we need to check whether it
# linguistically conforms to the specified type
# if its an internally defined attribute, this will be checked by constraints
morphisms = self.bottom.read_outgoing_elements(attr_tm, "Morphism")
attr_conforms = True
if ref_element in morphisms:
# check conformance of reference model
type_model_uuid = UUID(self.bottom.read_value(attr_tm))
model_uuid = UUID(self.bottom.read_value(attr))
attr_conforms = Conformance(self.state, model_uuid, type_model_uuid)\
.check_nominal()
else:
# eval constraints
code = self.read_attribute(attr_tm, "constraint")
if code is not None:
attr_conforms = self.evaluate_constraint(code, element=attr)
if attr_conforms:
matched += 1
except ValueError:
# attr not found or failed parsing UUID
if optional:
continue
else:
break
if matched == len(structure):
self.candidates.setdefault(m_name, set()).add(type_name)
# filter out candidates for links based on source and target types
for m_element, m_name in self.model_names.items():
is_edge = self.bottom.read_edge_source(m_element) is not None
if is_edge and m_name in self.candidates:
m_source = self.bottom.read_edge_source(m_element)
m_target = self.bottom.read_edge_target(m_element)
source_candidates = self.candidates[self.model_names[m_source]]
target_candidates = self.candidates[self.model_names[m_target]]
remove = set()
for candidate_name in self.candidates[m_name]:
candidate_element, = self.bottom.read_outgoing_elements(self.type_model, candidate_name)
candidate_source = self.type_model_names[self.bottom.read_edge_source(candidate_element)]
if candidate_source not in source_candidates:
remove.add(candidate_name)
candidate_target = self.type_model_names[self.bottom.read_edge_target(candidate_element)]
if candidate_target not in target_candidates:
remove.add(candidate_name)
self.candidates[m_name] = self.candidates[m_name].difference(remove)
def build_morphisms(self):
if not all([len(c) == 1 for c in self.candidates.values()]):
raise RuntimeError("Cannot build incomplete or ambiguous morphism.")
mapping = {k: v.pop() for k, v in self.candidates.items()}
for m_name, tm_name in mapping.items():
# morphism to class/assoc
m_element, = self.bottom.read_outgoing_elements(self.model, m_name)
tm_element, = self.bottom.read_outgoing_elements(self.type_model, tm_name)
self.bottom.create_edge(m_element, tm_element, "Morphism")
# morphism for attributes and attribute links
structure = self.structures[tm_name]
for attr_name, _, attr_type in structure:
try:
# attribute node
attr_element, = self.bottom.read_outgoing_elements(self.model, f"{m_name}.{attr_name}")
attr_type_element, = self.bottom.read_outgoing_elements(self.type_model, attr_type)
self.bottom.create_edge(attr_element, attr_type_element, "Morphism")
# attribute link
attr_link_element, = self.bottom.read_outgoing_elements(self.model, f"{m_name}.{attr_name}_link")
attr_link_type_element, = self.bottom.read_outgoing_elements(self.type_model, f"{tm_name}_{attr_name}")
self.bottom.create_edge(attr_link_element, attr_link_type_element, "Morphism")
except ValueError:
pass
if __name__ == '__main__':
from state.devstate import DevState as State
s = State()
from bootstrap.scd import bootstrap_scd
scd = bootstrap_scd(s)
from bootstrap.pn import bootstrap_pn
ltm_pn = bootstrap_pn(s, "PN")
ltm_pn_lola = bootstrap_pn(s, "PNlola")
from services.pn import PN
my_pn = s.create_node()
PNserv = PN(my_pn, s)
PNserv.create_place("p1", 5)
PNserv.create_place("p2", 0)
PNserv.create_transition("t1")
PNserv.create_p2t("p1", "t1", 1)
PNserv.create_t2p("t1", "p2", 1)
cf = Conformance(s, my_pn, ltm_pn_lola)
# cf = Conformance(s, scd, ltm_pn, scd)
cf.precompute_structures()
cf.match_structures()
cf.build_morphisms()
print(cf.check_nominal())

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from framework.manager import Manager
from state.devstate import DevState
from PyInquirer import prompt, Separator
from pprint import pprint
import prompt_questions as questions
from inspect import signature
from uuid import UUID
def generate_context_question(ctx_type, services):
choices = [
s.__name__.replace('_', ' ') for s in services
]
choices = sorted(choices)
choices.append(Separator())
choices.append("close context")
ctx_question = [
{
'type': 'list',
'name': 'op',
'message': f'Currently in context {ctx_type.__name__}, which operation would you like to perform?',
'choices': choices,
'filter': lambda x: x.replace(' ', '_')
}
]
return ctx_question
def main():
state = DevState()
man = Manager(state)
while True:
if man.current_model is not None and man.current_context is None:
answer = prompt(questions.MODEL_SELECTED)
ctx = man
elif man.current_model is not None and man.current_context is not None:
qs = generate_context_question(type(man.current_context), man.get_services())
answer = prompt(qs)
if answer['op'] == 'close_context':
man.close_context()
continue
else:
ctx = man.current_context
else:
answer = prompt(questions.MODEL_MGMT)
ctx = man
if answer['op'] == 'exit':
break
else:
method = getattr(ctx, answer['op'])
args_questions = []
types = {}
for p in signature(method).parameters.values():
types[p.name] = p.annotation # can't use filter in question dict, doesn't work for some reason...
if p.annotation == UUID:
args_questions.append({
'type': 'list',
'name': p.name,
'message': f'{p.name.replace("_", " ")}?',
'choices': list(man.get_models()),
'filter': lambda x: state.read_value(state.read_dict(state.read_root(), x))
})
else:
args_questions.append({
'type': 'input',
'name': p.name,
'message': f'{p.name.replace("_", " ")}?',
'filter': lambda x: False if x.lower() == 'false' else x
})
args = prompt(args_questions)
args = {k: types[k](v) for k, v in args.items()}
try:
output = method(**args)
if output is not None:
try:
if isinstance(output, str):
raise TypeError
output = list(output)
if len(output) > 0:
for o in sorted(output):
print(f"\u2022 {o}")
except TypeError:
print(f"\u2022 {output}")
except RuntimeError as e:
print(e)
if __name__ == '__main__':
print("""Welcome to...
__ ____ _____
| \/ \ \ / /__ \
| \ / |\ \ / / ) |
| |\/| | \ \/ / / /
| | | | \ / / /_
|_| |_| \/ |____|
""")
main()

140
framework/manager.py Normal file
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from state.base import State
from bootstrap.scd import bootstrap_scd
from services import implemented as services
from framework.conformance import Conformance
from uuid import UUID
class Manager:
def __init__(self, state: State):
self.current_model = None
self.current_context = None
self.state = state
bootstrap_scd(state)
scd_node = self.state.read_dict(self.state.read_root(), "SCD")
for key_node in self.state.read_dict_keys(self.state.read_root()):
model_node = self.state.read_dict_node(self.state.read_root(), key_node)
self.state.create_edge(model_node, scd_node)
def get_models(self):
for key_node in self.state.read_dict_keys(self.state.read_root()):
yield self.state.read_value(key_node)
def instantiate_model(self, type_model_name: str, name: str):
root = self.state.read_root()
type_model_node = self.state.read_dict(root, type_model_name)
if type_model_node is None:
raise RuntimeError(f"No type model with name {type_model_name} found.")
else:
# check if model is a linguistic type model
scd_node = self.state.read_dict(self.state.read_root(), "SCD")
incoming = self.state.read_incoming(scd_node)
incoming = [self.state.read_edge(e)[0] for e in incoming]
if type_model_node not in incoming:
raise RuntimeError(f"Model with name {type_model_name} is not a type model.")
if name in map(self.state.read_value, self.state.read_dict_keys(root)):
raise RuntimeError(f"Model with name {name} already exists.")
new_model_root = self.state.create_node()
new_model_node = self.state.create_nodevalue(str(new_model_root))
self.state.create_dict(root, name, new_model_node)
self.state.create_edge(new_model_node, type_model_node)
self.current_model = (name, new_model_root)
if type_model_name not in services:
raise RuntimeError(f"Services for type {type_model_name} not implemented.")
self.current_context = services[type_model_name](self.current_model[1], self.state)
def select_model(self, name: str):
root = self.state.read_root()
model_node = self.state.read_dict(root, name)
if model_node is None:
raise RuntimeError(f"No model with name {name} found.")
model_root = UUID(self.state.read_value(model_node))
self.current_model = (name, model_root)
def close_model(self):
self.current_model = None
self.current_context = None
def get_types(self):
root = self.state.read_root()
if self.current_model is None:
raise RuntimeError(f"No model currently selected.")
name, model = self.current_model
model_id = self.state.read_dict(root, name)
outgoing = self.state.read_outgoing(model_id)
outgoing = [e for e in outgoing if len(self.state.read_outgoing(e)) == 0]
elements = [self.state.read_edge(e)[1] for e in outgoing]
for e in elements:
incoming = self.state.read_incoming(e)
label_edge, = [e for e in incoming if len(self.state.read_outgoing(e)) == 1]
label_edge, = self.state.read_outgoing(label_edge)
_, label_node = self.state.read_edge(label_edge)
yield self.state.read_value(label_node)
def select_context(self, name: str):
if name not in self.get_types():
raise RuntimeError(f"No type {name} that currently selected model conforms to.")
if name not in services:
raise RuntimeError(f"Services for type {name} not implemented.")
self.current_context = services[name](self.current_model[1], self.state)
self.current_context.from_bottom()
def close_context(self):
self.current_context.to_bottom()
self.current_context = None
def get_services(self):
if self.current_model is None:
raise RuntimeError(f"No model currently selected.")
if self.current_context is None:
raise RuntimeError(f"No context currently selected.")
yield from [
getattr(self.current_context, func)
for func in dir(self.current_context)
if callable(getattr(self.current_context, func))
and not func.startswith("__")
and not func == "from_bottom"
and not func == "to_bottom"
]
def check_conformance(self, type_model_name: str, model_name: str):
root = self.state.read_root()
type_model_node = self.state.read_dict(root, type_model_name)
if type_model_node is None:
raise RuntimeError(f"No type model with name {type_model_name} found.")
model_node = self.state.read_dict(root, model_name)
if model_node is None:
raise RuntimeError(f"No model with name {model_node} found.")
types = self.state.read_outgoing(model_node)
types = [self.state.read_edge(e)[1] for e in types]
if type_model_node not in types:
conf = Conformance(self.state,
UUID(self.state.read_value(model_node)),
UUID(self.state.read_value(type_model_node))).check_structural(log=True)
if conf:
self.state.create_edge(model_node, type_model_node)
return conf
else:
return Conformance(self.state,
UUID(self.state.read_value(model_node)),
UUID(self.state.read_value(type_model_node))).check_nominal(log=True)
def dump_state(self):
import pickle
with open("state.p", "wb") as file:
pickle.dump(self.state, file)
def load_state(self):
import pickle
with open("state.p", "rb") as file:
self.state = pickle.load(file)
if __name__ == '__main__':
from state.devstate import DevState
s = DevState()
m = Manager(s)
m.select_model("SCD")
m.select_context("SCD")
for f in m.get_services():
print(f)

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@ -0,0 +1,36 @@
from PyInquirer import Separator
MODEL_SELECTED = [
{
'type': 'list',
'name': 'op',
'message': 'Model selected... Which operation would you like to perform?',
'choices': [
'get types',
'select context',
Separator(),
'close model'
],
'filter': lambda x: x.replace(' ', '_')
}
]
MODEL_MGMT = [
{
'type': 'list',
'name': 'op',
'message': 'Which model management operation would you like to perform?',
'choices': [
'get models',
'select model',
'instantiate model',
'check conformance',
Separator(),
'load state',
'dump state',
Separator(),
'exit'
],
'filter': lambda x: x.replace(' ', '_')
}
]

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@ -1,7 +0,0 @@
from abc import ABC, abstractmethod
from uuid import UUID
class Service(ABC):
def __init__(self, model: UUID):
self.model = model

9
services/__init__.py Normal file
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@ -0,0 +1,9 @@
from services.scd import SCD
from services.point.cartesian import PointCartesian
from services.point.polar import PointPolar
implemented = {
"SCD": SCD,
"PointCartesian": PointCartesian,
"PointPolar": PointPolar,
}

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@ -1,11 +1,10 @@
from service.base import Service, UUID from uuid import UUID
from state.base import State from state.base import State
from typing import Any, List from typing import Any, List
class Bottom(Service): class Bottom:
def __init__(self, model: UUID, state: State): def __init__(self, state: State):
super().__init__(model)
self.state = state self.state = state
def create_node(self, value=None) -> UUID: def create_node(self, value=None) -> UUID:
@ -15,10 +14,10 @@ class Bottom(Service):
return self.state.create_nodevalue(value) return self.state.create_nodevalue(value)
def create_edge(self, source: UUID, target: UUID, label=None): def create_edge(self, source: UUID, target: UUID, label=None):
pass if label is None:
return self.state.create_edge(source, target)
def read_model_root(self) -> UUID: else:
return self.model return self.state.create_dict(source, label, target)
def read_value(self, node: UUID) -> Any: def read_value(self, node: UUID) -> Any:
return self.state.read_value(node) return self.state.read_value(node)
@ -65,6 +64,20 @@ class Bottom(Service):
edges = [e for e in edges if read_label(e) == label] edges = [e for e in edges if read_label(e) == label]
return edges return edges
def read_incoming_elements(self, target: UUID, label=None) -> List[UUID]:
edges = self.read_incoming_edges(target, label)
if edges is None or len(edges) == 0:
return []
else:
return [self.read_edge_source(e) for e in edges]
def read_outgoing_elements(self, source: UUID, label=None) -> List[UUID]:
edges = self.read_outgoing_edges(source, label)
if edges is None or len(edges) == 0:
return []
else:
return [self.read_edge_target(e) for e in edges]
def read_keys(self, element: UUID) -> List[str]: def read_keys(self, element: UUID) -> List[str]:
key_nodes = self.state.read_dict_keys(element) key_nodes = self.state.read_dict_keys(element)
unique_keys = {self.state.read_value(node) for node in key_nodes} unique_keys = {self.state.read_value(node) for node in key_nodes}

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128
services/pn.py Normal file
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from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
from services.primitives.integer_type import Integer
from services.primitives.string_type import String
import re
class PN:
def __init__(self, model: UUID, state: State):
ltm_pn_id = state.read_dict(state.read_root(), "PN")
self.ltm_pn = UUID(state.read_value(ltm_pn_id))
self.model = model
self.bottom = Bottom(state)
def create_place(self, name: str, tokens: int):
# instantiate Place class
place_node = self.bottom.create_node() # create place node
self.bottom.create_edge(self.model, place_node, name) # attach to model
morph_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "P") # retrieve type
self.bottom.create_edge(place_node, morph_node, "Morphism") # create morphism link
# instantiate name attribute
name_model = self.bottom.create_node()
String(name_model, self.bottom.state).create(name)
name_node = self.bottom.create_node(str(name_model))
self.bottom.create_edge(self.model, name_node, f"{name}.n")
name_link = self.bottom.create_edge(place_node, name_node)
self.bottom.create_edge(self.model, name_link, f"{name}.n_link")
ltm_pn_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "String")
ltm_pn_link, = self.bottom.read_outgoing_elements(self.ltm_pn, "P_n")
self.bottom.create_edge(name_node, ltm_pn_node, "Morphism")
self.bottom.create_edge(name_link, ltm_pn_link, "Morphism")
# instantiate tokens attribute
tokens_model = self.bottom.create_node()
Integer(tokens_model, self.bottom.state).create(tokens)
tokens_node = self.bottom.create_node(str(tokens_model))
self.bottom.create_edge(self.model, tokens_node, f"{name}.t")
tokens_link = self.bottom.create_edge(place_node, tokens_node)
self.bottom.create_edge(self.model, tokens_link, f"{name}.t_link")
ltm_pn_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "Integer")
ltm_pn_link, = self.bottom.read_outgoing_elements(self.ltm_pn, "P_t")
self.bottom.create_edge(tokens_node, ltm_pn_node, "Morphism")
self.bottom.create_edge(tokens_link, ltm_pn_link, "Morphism")
def create_transition(self, name: str):
# instantiate Transition class
transition_node = self.bottom.create_node() # create transition node
self.bottom.create_edge(self.model, transition_node, name) # attach to model
morph_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "T") # retrieve type
self.bottom.create_edge(transition_node, morph_node, "Morphism") # create morphism link
# instantiate name attribute
name_model = self.bottom.create_node()
String(name_model, self.bottom.state).create(name)
name_node = self.bottom.create_node(str(name_model))
self.bottom.create_edge(self.model, name_node, f"{name}.name")
name_link = self.bottom.create_edge(transition_node, name_node)
self.bottom.create_edge(self.model, name_link, f"{name}.name_link")
ltm_pn_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "String")
ltm_pn_link, = self.bottom.read_outgoing_elements(self.ltm_pn, "T_name")
self.bottom.create_edge(name_node, ltm_pn_node, "Morphism")
self.bottom.create_edge(name_link, ltm_pn_link, "Morphism")
def create_p2t(self, place: str, transition: str, weight: int):
# create p2t link + morphism links
edge = self.bottom.create_edge(
*self.bottom.read_outgoing_elements(self.model, place),
*self.bottom.read_outgoing_elements(self.model, transition),
)
self.bottom.create_edge(self.model, edge, f"{place}_to_{transition}") # attach to model
morph_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "P2T") # retrieve type
self.bottom.create_edge(edge, morph_node, "Morphism") # create morphism link
# weight attribute
weight_model = self.bottom.create_node()
Integer(weight_model, self.bottom.state).create(weight)
weight_node = self.bottom.create_node(str(weight_model))
self.bottom.create_edge(self.model, weight_node, f"{place}_to_{transition}.weight")
weight_link = self.bottom.create_edge(edge, weight_node)
self.bottom.create_edge(self.model, weight_link, f"{place}_to_{transition}.weight_link")
scd_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "Integer")
scd_link, = self.bottom.read_outgoing_elements(self.ltm_pn, "P2T_weight")
self.bottom.create_edge(weight_node, scd_node, "Morphism")
self.bottom.create_edge(weight_link, scd_link, "Morphism")
def create_t2p(self, transition: str, place: str, weight: int):
# create t2p link + morphism links
edge = self.bottom.create_edge(
*self.bottom.read_outgoing_elements(self.model, transition),
*self.bottom.read_outgoing_elements(self.model, place),
)
self.bottom.create_edge(self.model, edge, f"{transition}_to_{place}") # attach to model
morph_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "T2P") # retrieve type
self.bottom.create_edge(edge, morph_node, "Morphism") # create morphism link
# weight attribute
weight_model = self.bottom.create_node()
Integer(weight_model, self.bottom.state).create(weight)
weight_node = self.bottom.create_node(str(weight_model))
self.bottom.create_edge(self.model, weight_node, f"{transition}_to_{place}.weight")
weight_link = self.bottom.create_edge(edge, weight_node)
self.bottom.create_edge(self.model, weight_link, f"{transition}_to_{place}.weight_link")
scd_node, = self.bottom.read_outgoing_elements(self.ltm_pn, "Integer")
scd_link, = self.bottom.read_outgoing_elements(self.ltm_pn, "T2P_weight")
self.bottom.create_edge(weight_node, scd_node, "Morphism")
self.bottom.create_edge(weight_link, scd_link, "Morphism")
def list_elements(self):
pn_names = {}
for key in self.bottom.read_keys(self.ltm_pn):
element, = self.bottom.read_outgoing_elements(self.ltm_pn, key)
pn_names[element] = key
unsorted = []
for key in self.bottom.read_keys(self.model):
element, = self.bottom.read_outgoing_elements(self.model, key)
element_types = self.bottom.read_outgoing_elements(element, "Morphism")
type_model_elements = self.bottom.read_outgoing_elements(self.ltm_pn)
element_type_node, = [e for e in element_types if e in type_model_elements]
unsorted.append((key, pn_names[element_type_node]))
for elem in sorted(unsorted, key=lambda e: e[0]):
print("{} : {}".format(*elem))
def delete_element(self, name: str):
keys = self.bottom.read_keys(self.model)
r = re.compile(r"{}\..*".format(name))
to_delete = list(filter(r.match, keys))
for key in to_delete:
# TODO: find way to solve memory leak, primitive models are not deleted this way
node, = self.bottom.read_outgoing_elements(self.model, label=key)
self.bottom.delete_element(node)

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@ -0,0 +1,83 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
from services.primitives.float_type import Float
class PointCartesian:
def __init__(self, model: UUID, state: State):
type_model_id = state.read_dict(state.read_root(), "PointCartesian")
self.type_model = UUID(state.read_value(type_model_id))
self.model = model
self.state = state
self.point = None
def create_point(self, x: float, y: float):
if self.point is None:
self.point = (x, y)
else:
raise RuntimeError("A PointCartesian model can contain at most 1 point.")
def read_point(self):
if self.point is None:
raise RuntimeError("No point found in model.")
else:
return f"(X = {self.point[0]}, Y = {self.point[1]})"
def delete_point(self):
self.point = None
def apply_movement(self, delta_x: float, delta_y: float):
if self.point is not None:
self.point = (self.point[0] + delta_x, self.point[1] + delta_y)
else:
raise RuntimeError("No point found in model.")
def to_bottom(self):
bottom = Bottom(self.state)
# clear residual model
for element in bottom.read_outgoing_elements(self.model):
bottom.delete_element(element)
# create primitive models
c1_model = bottom.create_node()
c2_model = bottom.create_node()
Float(c1_model, self.state).create(self.point[0])
Float(c2_model, self.state).create(self.point[1])
# instantiate Point class
point_node = bottom.create_node() # create point node
bottom.create_edge(self.model, point_node, "point") # attach to model
morph_node, = bottom.read_outgoing_elements(self.type_model, "PointCartesian") # retrieve type
bottom.create_edge(point_node, morph_node, "Morphism") # create morphism link
# instantiate c1 attribute
c1_node = bottom.create_node(str(c1_model))
bottom.create_edge(self.model, c1_node, "point.c1")
c1_link = bottom.create_edge(point_node, c1_node)
bottom.create_edge(self.model, c1_link, "point.c1_link")
ltm_point_node, = bottom.read_outgoing_elements(self.type_model, "Float")
ltm_point_link, = bottom.read_outgoing_elements(self.type_model, "PointCartesian_c1")
bottom.create_edge(c1_node, ltm_point_node, "Morphism")
bottom.create_edge(c1_link, ltm_point_link, "Morphism")
# instantiate c2 attribute
c2_node = bottom.create_node(str(c2_model))
bottom.create_edge(self.model, c2_node, "point.c2")
c2_link = bottom.create_edge(point_node, c2_node)
bottom.create_edge(self.model, c2_link, "point.c2_link")
ltm_point_node, = bottom.read_outgoing_elements(self.type_model, "Float")
ltm_point_link, = bottom.read_outgoing_elements(self.type_model, "PointCartesian_c2")
bottom.create_edge(c2_node, ltm_point_node, "Morphism")
bottom.create_edge(c2_link, ltm_point_link, "Morphism")
def from_bottom(self):
bottom = Bottom(self.state)
keys = bottom.read_keys(self.model)
x_key, = filter(lambda k: k.endswith(".c1"), keys)
y_key, = filter(lambda k: k.endswith(".c2"), keys)
x_ref_node, = bottom.read_outgoing_elements(self.model, x_key)
y_ref_node, = bottom.read_outgoing_elements(self.model, y_key)
x_model = UUID(bottom.read_value(x_ref_node))
y_model = UUID(bottom.read_value(y_ref_node))
x_val_node, = bottom.read_outgoing_elements(x_model)
y_val_node, = bottom.read_outgoing_elements(y_model)
self.point = (bottom.read_value(x_val_node), bottom.read_value(y_val_node))

90
services/point/polar.py Normal file
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@ -0,0 +1,90 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
from services.primitives.float_type import Float
import math
class PointPolar:
def __init__(self, model: UUID, state: State):
type_model_id = state.read_dict(state.read_root(), "PointPolar")
self.type_model = UUID(state.read_value(type_model_id))
self.model = model
self.state = state
self.point = None
def create_point(self, r: float, theta: float):
if self.point is None:
self.point = (r, theta)
else:
raise RuntimeError("A PointPolar model can contain at most 1 point.")
def read_point(self):
if self.point is None:
raise RuntimeError("No point found in model.")
else:
return f"(r = {self.point[0]}, \u03B8 = {self.point[1]})"
def delete_point(self):
self.point = None
def apply_movement(self, delta_r: float, delta_theta: float):
if self.point is not None:
self.point = (self.point[0] + delta_r, self.point[1] + delta_theta)
else:
raise RuntimeError("No point found in model.")
def to_bottom(self):
x = self.point[0]*math.cos(self.point[1]) # x = r * cos(theta)
y = self.point[0]*math.sin(self.point[1]) # y = r * sin(theta)
bottom = Bottom(self.state)
# clear residual model
for element in bottom.read_outgoing_elements(self.model):
bottom.delete_element(element)
# create primitive models
c1_model = bottom.create_node()
c2_model = bottom.create_node()
Float(c1_model, self.state).create(x)
Float(c2_model, self.state).create(y)
# instantiate Point class
point_node = bottom.create_node() # create point node
bottom.create_edge(self.model, point_node, "point") # attach to model
morph_node, = bottom.read_outgoing_elements(self.type_model, "PointPolar") # retrieve type
bottom.create_edge(point_node, morph_node, "Morphism") # create morphism link
# instantiate c1 attribute
c1_node = bottom.create_node(str(c1_model))
bottom.create_edge(self.model, c1_node, "point.c1")
c1_link = bottom.create_edge(point_node, c1_node)
bottom.create_edge(self.model, c1_link, "point.c1_link")
ltm_point_node, = bottom.read_outgoing_elements(self.type_model, "Float")
ltm_point_link, = bottom.read_outgoing_elements(self.type_model, "PointPolar_c1")
bottom.create_edge(c1_node, ltm_point_node, "Morphism")
bottom.create_edge(c1_link, ltm_point_link, "Morphism")
# instantiate c2 attribute
c2_node = bottom.create_node(str(c2_model))
bottom.create_edge(self.model, c2_node, "point.c2")
c2_link = bottom.create_edge(point_node, c2_node)
bottom.create_edge(self.model, c2_link, "point.c2_link")
ltm_point_node, = bottom.read_outgoing_elements(self.type_model, "Float")
ltm_point_link, = bottom.read_outgoing_elements(self.type_model, "PointPolar_c2")
bottom.create_edge(c2_node, ltm_point_node, "Morphism")
bottom.create_edge(c2_link, ltm_point_link, "Morphism")
def from_bottom(self):
bottom = Bottom(self.state)
keys = bottom.read_keys(self.model)
x_key, = filter(lambda k: k.endswith(".c1"), keys)
y_key, = filter(lambda k: k.endswith(".c2"), keys)
x_ref_node, = bottom.read_outgoing_elements(self.model, x_key)
y_ref_node, = bottom.read_outgoing_elements(self.model, y_key)
x_model = UUID(bottom.read_value(x_ref_node))
y_model = UUID(bottom.read_value(y_ref_node))
x_val_node, = bottom.read_outgoing_elements(x_model)
y_val_node, = bottom.read_outgoing_elements(y_model)
x = bottom.read_value(x_val_node)
y = bottom.read_value(y_val_node)
r = math.sqrt(math.pow(x, 2) + math.pow(y, 2))
theta = math.atan2(y, x)
self.point = (r, theta)

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from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
class Boolean:
def __init__(self, model: UUID, state: State):
self.model = model
self.bottom = Bottom(state)
type_model_id_node, = self.bottom.read_outgoing_elements(state.read_root(), "Boolean")
self.type_model = UUID(self.bottom.read_value(type_model_id_node))
def create(self, value: bool):
if "boolean" in self.bottom.read_keys(self.model):
instance, = self.bottom.read_outgoing_elements(self.model, "boolean")
self.bottom.delete_element(instance)
_instance = self.bottom.create_node(value)
self.bottom.create_edge(self.model, _instance, "boolean")
_type, = self.bottom.read_outgoing_elements(self.type_model, "Boolean")
self.bottom.create_edge(_instance, _type, "Morphism")

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@ -0,0 +1,20 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
class Float:
def __init__(self, model: UUID, state: State):
self.model = model
self.bottom = Bottom(state)
type_model_id_node, = self.bottom.read_outgoing_elements(state.read_root(), "Float")
self.type_model = UUID(self.bottom.read_value(type_model_id_node))
def create(self, value: float):
if "float" in self.bottom.read_keys(self.model):
instance, = self.bottom.read_outgoing_elements(self.model, "float")
self.bottom.delete_element(instance)
_instance = self.bottom.create_node(value)
self.bottom.create_edge(self.model, _instance, "float")
_type, = self.bottom.read_outgoing_elements(self.type_model, "Float")
self.bottom.create_edge(_instance, _type, "Morphism")

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@ -0,0 +1,20 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
class Integer:
def __init__(self, model: UUID, state: State):
self.model = model
self.bottom = Bottom(state)
type_model_id_node, = self.bottom.read_outgoing_elements(state.read_root(), "Integer")
self.type_model = UUID(self.bottom.read_value(type_model_id_node))
def create(self, value: int):
if "string" in self.bottom.read_keys(self.model):
instance, = self.bottom.read_outgoing_elements(self.model, "integer")
self.bottom.delete_element(instance)
_instance = self.bottom.create_node(value)
self.bottom.create_edge(self.model, _instance, "integer")
_type, = self.bottom.read_outgoing_elements(self.type_model, "Integer")
self.bottom.create_edge(_instance, _type, "Morphism")

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@ -0,0 +1,20 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
class String:
def __init__(self, model: UUID, state: State):
self.model = model
self.bottom = Bottom(state)
type_model_id_node, = self.bottom.read_outgoing_elements(state.read_root(), "String")
self.type_model = UUID(self.bottom.read_value(type_model_id_node))
def create(self, value: str):
if "string" in self.bottom.read_keys(self.model):
instance, = self.bottom.read_outgoing_elements(self.model, "string")
self.bottom.delete_element(instance)
_instance = self.bottom.create_node(value)
self.bottom.create_edge(self.model, _instance, "string")
_type, = self.bottom.read_outgoing_elements(self.type_model, "String")
self.bottom.create_edge(_instance, _type, "Morphism")

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@ -0,0 +1,20 @@
from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
class Integer:
def __init__(self, model: UUID, state: State):
self.model = model
self.bottom = Bottom(state)
type_model_id_node, = self.bottom.read_outgoing_elements(state.read_root(), "Type")
self.type_model = UUID(self.bottom.read_value(type_model_id_node))
def create(self, value: tuple):
if "string" in self.bottom.read_keys(self.model):
instance, = self.bottom.read_outgoing_elements(self.model, "type")
self.bottom.delete_element(instance)
_instance = self.bottom.create_node(value)
self.bottom.create_edge(self.model, _instance, "type")
_type, = self.bottom.read_outgoing_elements(self.type_model, "Type")
self.bottom.create_edge(_instance, _type, "Morphism")

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services/scd.py Normal file
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from uuid import UUID
from state.base import State
from services.bottom.V0 import Bottom
from services.primitives.boolean_type import Boolean
from services.primitives.integer_type import Integer
from services.primitives.string_type import String
import re
class SCD:
def __init__(self, model: UUID, state: State):
type_model_id = state.read_dict(state.read_root(), "SCD")
self.scd_model = UUID(state.read_value(type_model_id))
self.model = model
self.bottom = Bottom(state)
def create_class(self, name: str, abstract: bool = None, min_c: int = None, max_c: int = None):
def set_cardinality(bound: str, value: int):
_c_model = self.bottom.create_node()
Integer(_c_model, self.bottom.state).create(value)
_c_node = self.bottom.create_node(str(_c_model))
self.bottom.create_edge(self.model, _c_node, f"{name}.{bound}_cardinality")
_c_link = self.bottom.create_edge(class_node, _c_node)
self.bottom.create_edge(self.model, _c_link, f"{name}.{bound}_cardinality_link")
_scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Integer")
_scd_link, = self.bottom.read_outgoing_elements(self.scd_model, f"Class_{bound}_cardinality")
self.bottom.create_edge(_c_node, _scd_node, "Morphism")
self.bottom.create_edge(_c_link, _scd_link, "Morphism")
# create class + attributes + morphism links
class_node = self.bottom.create_node() # create class node
self.bottom.create_edge(self.model, class_node, name) # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Class") # retrieve type
self.bottom.create_edge(class_node, scd_node, "Morphism") # create morphism link
if abstract is not None:
abstract_model = self.bottom.create_node()
Boolean(abstract_model, self.bottom.state).create(abstract)
abstract_node = self.bottom.create_node(str(abstract_model))
self.bottom.create_edge(self.model, abstract_node, f"{name}.abstract")
abstract_link = self.bottom.create_edge(class_node, abstract_node)
self.bottom.create_edge(self.model, abstract_link, f"{name}.abstract_link")
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Boolean")
scd_link, = self.bottom.read_outgoing_elements(self.scd_model, "Class_abstract")
self.bottom.create_edge(abstract_node, scd_node, "Morphism")
self.bottom.create_edge(abstract_link, scd_link, "Morphism")
if min_c is not None:
set_cardinality("lower", min_c)
if max_c is not None:
set_cardinality("upper", min_c)
def create_association(self, name: str, source: str, target: str,
src_min_c: int = None, src_max_c: int = None,
tgt_min_c: int = None, tgt_max_c: int = None):
def set_cardinality(bound: str, value: int):
_c_model = self.bottom.create_node()
Integer(_c_model, self.bottom.state).create(value)
_c_node = self.bottom.create_node(str(_c_model))
self.bottom.create_edge(self.model, _c_node, f"{name}.{bound}_cardinality")
_c_link = self.bottom.create_edge(assoc_edge, _c_node)
self.bottom.create_edge(self.model, _c_link, f"{name}.{bound}_cardinality_link")
_scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Integer")
_scd_link, = self.bottom.read_outgoing_elements(self.scd_model, f"Class_{bound}_cardinality")
self.bottom.create_edge(_c_node, _scd_node, "Morphism")
self.bottom.create_edge(_c_link, _scd_link, "Morphism")
# create class + attributes + morphism links
assoc_edge = self.bottom.create_edge(
*self.bottom.read_outgoing_elements(self.model, source),
*self.bottom.read_outgoing_elements(self.model, target),
) # create assoc edge
self.bottom.create_edge(self.model, assoc_edge, name) # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Association") # retrieve type
self.bottom.create_edge(assoc_edge, scd_node, "Morphism") # create morphism link
if src_min_c is not None:
set_cardinality("source_lower", src_min_c)
if src_max_c is not None:
set_cardinality("source_upper", src_max_c)
if tgt_min_c is not None:
set_cardinality("target_lower", tgt_min_c)
if tgt_max_c is not None:
set_cardinality("target_upper", tgt_max_c)
def create_global_constraint(self, name: str):
# create element + morphism links
element_node = self.bottom.create_node() # create element node
self.bottom.create_edge(self.model, element_node, name) # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "GlobalConstraint") # retrieve type
self.bottom.create_edge(element_node, scd_node, "Morphism") # create morphism link
def create_attribute(self, name: str):
# create element + morphism links
element_node = self.bottom.create_node() # create element node
self.bottom.create_edge(self.model, element_node, name) # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Attribute") # retrieve type
self.bottom.create_edge(element_node, scd_node, "Morphism") # create morphism link
def create_attribute_link(self, source: str, target: str, name: str, optional: bool):
# create attribute link + morphism links
assoc_edge = self.bottom.create_edge(
*self.bottom.read_outgoing_elements(self.model, source),
*self.bottom.read_outgoing_elements(self.model, target),
) # create inheritance edge
self.bottom.create_edge(self.model, assoc_edge, f"{source}_{name}") # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "AttributeLink") # retrieve type
self.bottom.create_edge(assoc_edge, scd_node, "Morphism") # create morphism link
# name attribute
name_model = self.bottom.create_node()
String(name_model, self.bottom.state).create(name)
name_node = self.bottom.create_node(str(name_model))
self.bottom.create_edge(self.model, name_node, f"{source}_{name}.name")
name_link = self.bottom.create_edge(assoc_edge, name_node)
self.bottom.create_edge(self.model, name_link, f"{source}_{name}.name_link")
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "String")
scd_link, = self.bottom.read_outgoing_elements(self.scd_model, "AttributeLink_name")
self.bottom.create_edge(name_node, scd_node, "Morphism")
self.bottom.create_edge(name_link, scd_link, "Morphism")
# optional attribute
optional_model = self.bottom.create_node()
Boolean(optional_model, self.bottom.state).create(optional)
optional_node = self.bottom.create_node(str(optional_model))
self.bottom.create_edge(self.model, optional_node, f"{source}_{name}.optional")
optional_link = self.bottom.create_edge(assoc_edge, optional_node)
self.bottom.create_edge(self.model, optional_link, f"{source}_{name}.optional_link")
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Boolean")
scd_link, = self.bottom.read_outgoing_elements(self.scd_model, "AttributeLink_optional")
self.bottom.create_edge(optional_node, scd_node, "Morphism")
self.bottom.create_edge(optional_link, scd_link, "Morphism")
def create_model_ref(self, name: str, model: UUID):
# create element + morphism links
element_node = self.bottom.create_node(str(model)) # create element node
self.bottom.create_edge(self.model, element_node, name) # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "ModelRef") # retrieve type
self.bottom.create_edge(element_node, scd_node, "Morphism") # create morphism link
def create_inheritance(self, child: str, parent: str):
# create inheritance + morphism links
assoc_edge = self.bottom.create_edge(
*self.bottom.read_outgoing_elements(self.model, child),
*self.bottom.read_outgoing_elements(self.model, parent),
) # create inheritance edge
self.bottom.create_edge(self.model, assoc_edge, f"{child}_inh_{parent}") # attach to model
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "Inheritance") # retrieve type
self.bottom.create_edge(assoc_edge, scd_node, "Morphism") # create morphism link
def add_constraint(self, element: str, code: str):
element_node, = self.bottom.read_outgoing_elements(self.model, element) # retrieve element
# code attribute
code_node = self.bottom.create_node(code)
self.bottom.create_edge(self.model, code_node, f"{element}.constraint")
code_link = self.bottom.create_edge(element_node, code_node)
self.bottom.create_edge(self.model, code_link, f"{element}.constraint_link")
scd_node, = self.bottom.read_outgoing_elements(self.scd_model, "ActionCode")
scd_link, = self.bottom.read_outgoing_elements(self.scd_model, "Element_constraint")
self.bottom.create_edge(code_node, scd_node, "Morphism")
self.bottom.create_edge(code_link, scd_link, "Morphism")
def list_elements(self):
scd_names = {}
for key in self.bottom.read_keys(self.scd_model):
element, = self.bottom.read_outgoing_elements(self.scd_model, key)
scd_names[element] = key
unsorted = []
for key in self.bottom.read_keys(self.model):
element, = self.bottom.read_outgoing_elements(self.model, key)
element_types = self.bottom.read_outgoing_elements(element, "Morphism")
type_model_elements = self.bottom.read_outgoing_elements(self.scd_model)
element_type_node, = [e for e in element_types if e in type_model_elements]
unsorted.append(f"{key} : {scd_names[element_type_node]}")
return sorted(unsorted)
def delete_element(self, name: str):
keys = self.bottom.read_keys(self.model)
r = re.compile(r"{}\..*".format(name))
to_delete = list(filter(r.match, keys))
for key in to_delete:
# TODO: find way to solve memory leak, primitive models are not deleted this way
node, = self.bottom.read_outgoing_elements(self.model, label=key)
self.bottom.delete_element(node)
def to_bottom(self):
pass
def from_bottom(self):
pass
if __name__ == '__main__':
from state.devstate import DevState as State
s = State()
from bootstrap.scd import bootstrap_scd
scd = bootstrap_scd(s)
# Retrieve refs to primitive type models
# # integer
int_type_id = s.read_dict(s.read_root(), "Integer")
int_type = UUID(s.read_value(int_type_id))
print(f"Integer Model UUID: {int_type}") # 6
# # string
str_type_id = s.read_dict(s.read_root(), "String")
str_type = UUID(s.read_value(str_type_id))
print(f"String Model UUID: {str_type}") # 16
# Create LTM_PN
model_uuid = s.create_node()
print(f"LTM_PN Model UUID: {model_uuid}") # 845
service = SCD(model_uuid, s)
# Create classes
service.create_class("P")
service.create_class("T")
# Create associations
service.create_association("P2T", "P", "T")
service.create_association("T2P", "T", "P")
# Create model refs
service.create_model_ref("Integer", int_type)
service.create_model_ref("String", int_type)
# Create class attributes
service.create_attribute_link("P", "Integer", "t", False)
service.create_attribute_link("P", "String", "n", False)
service.create_attribute_link("T", "String", "n", False)
# Create association attributes
service.create_attribute_link("P2T", "Integer", "w", False)
service.create_attribute_link("T2P", "Integer", "w", False)

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@ -8,15 +8,13 @@ class DevState(PyState):
+ node id's are generated sequentially to make writing tests easier + node id's are generated sequentially to make writing tests easier
""" """
free_id = 0
def __init__(self): def __init__(self):
self.free_id = 0
super().__init__() super().__init__()
@staticmethod def new_id(self) -> UUID:
def new_id() -> UUID: self.free_id += 1
DevState.free_id += 1 return UUID(int=self.free_id - 1)
return UUID(int=DevState.free_id - 1)
def dump(self, path: str, png_path: str = None): def dump(self, path: str, png_path: str = None):
"""Dumps the whole MV graph to a graphviz .dot-file """Dumps the whole MV graph to a graphviz .dot-file