Exemplo n.º 1
0
    def as_trap_collection(
        self,
        *,
        intention_type: IntentionType = IntentionType.GARBAGE,
    ) -> TrapCollection:
        traps = []

        for trap in self.traps:
            cubeables = []

            if not trap:
                raise self.InvalidDistribution('Empty trap')

            for constrained_node in trap:
                cubeable = constrained_node.node
                if isinstance(cubeable, AllNode) and len(
                        cubeable.children) == 1:
                    cubeables.extend(cubeable.children)
                else:
                    cubeables.append(cubeable)

            traps.append(
                Trap(
                    AllNode(cubeables),
                    intention_type=intention_type,
                ))

        return TrapCollection(traps)
Exemplo n.º 2
0
    def _span_tree(
        self,
        option: t.Union[Printing, PrintingNode],
        item: t.Any,
        is_top_level: bool,
        _type: str,
        release: t.Optional[CubeRelease] = None,
    ) -> None:
        constrained_node = (release.constrained_nodes.node_for_node(
            AllNode((option, )) if isinstance(option, Printing) else option)
                            if release else None)

        if isinstance(option, Printing):
            _item = PrintingTreeItem(option, _type, constrained_node)

        else:
            _item = NodeTreeItem(
                option,
                _type,
                constrained_node,
            )
            _option_type = 'any' if isinstance(option, AnyNode) else 'all'
            for child in option.children:
                self._span_tree(child, _item, False, _option_type)

        if is_top_level:
            item.addTopLevelItem(_item)
        else:
            item.addChild(_item)
Exemplo n.º 3
0
def trap_collection_to_trap_distribution(
    traps: TrapCollection,
    nodes: NodeCollection,
) -> t.Tuple[TrapDistribution, t.List[ConstrainedNode], t.List[t.Tuple[
        PrintingNode, int]]]:
    constraint_map: t.Dict[PrintingNode,
                           t.List[ConstrainedNode]] = defaultdict(list)

    for distribution_node in nodes:
        constraint_map[distribution_node.node].append(distribution_node)

    distribution: t.List[t.List[DistributionNode]] = [
        [] for _ in range(len(traps))
    ]
    removed: t.List[t.Tuple[PrintingNode, int]] = []

    for index, trap in enumerate(traps):

        for child in trap.node.children:
            printing_node = child if isinstance(
                child, PrintingNode) else AllNode((child, ))

            try:
                distribution[index].append(
                    DistributionNode(constraint_map[printing_node].pop()))
            except (KeyError, IndexError):
                removed.append((printing_node, index))

    added = list(itertools.chain(*(nodes
                                   for nodes in constraint_map.values())))

    return TrapDistribution(traps=distribution), added, removed
Exemplo n.º 4
0
	def as_trap_collection(self) -> FrozenMultiset[Trap]:
		traps = []

		for trap in self.traps:
			cubeables = []

			if not trap:
				raise Exception('Empty trap')

			for constrained_node in trap:
				cubeable = constrained_node.node
				if isinstance(cubeable, AllNode) and len(cubeable.children) == 1:
					cubeables.extend(cubeable.children)
				else:
					cubeables.append(cubeable)

			traps.append(Trap(AllNode(cubeables)))

		return FrozenMultiset(traps)
Exemplo n.º 5
0
	def trap_collection_to_trap_distribution(
		cls,
		traps: t.Collection[Trap],
		constrained_nodes: t.Iterable[ConstrainedNode],
	) -> t.Tuple[TrapDistribution, t.List[ConstrainedNode], t.List[t.Tuple[PrintingNode, int]]]:

		constraint_map = {} #type: t.Dict[PrintingNode, t.List[ConstrainedNode]]

		for constrained_node in constrained_nodes:
			try:
				constraint_map[constrained_node.node].append(constrained_node)
			except KeyError:
				constraint_map[constrained_node.node] = [constrained_node]

		distribution = [[] for _ in range(len(traps))] #type: t.List[t.List[ConstrainedNode]]
		removed = [] #type: t.List[t.Tuple[PrintingNode, int]]

		for index, trap in enumerate(traps):

			for child in trap.node.children:
				printing_node = child if isinstance(child, PrintingNode) else AllNode((child,))

				try:
					distribution[index].append(constraint_map[printing_node].pop())
				except (KeyError, IndexError):
					removed.append((printing_node, index))

		added = list(
			itertools.chain(
				*(
					nodes
					for nodes in
					constraint_map.values()
				)
			)
		)

		return TrapDistribution(traps=distribution), added, removed
Exemplo n.º 6
0
def test():
    db = Loader.load()
    strategy = JsonId(db)
    cube = CubeLoader(db).load()

    constrained_nodes = NodeCollection(
        ConstrainedNodeFetcher(db).fetch_garbage())

    groups = GroupMap(_GROUP_WEIGHTS)

    # s = '{"cube_delta": {}, "nodes_delta": {"nodes": []}}'
    # patch = strategy.deserialize(CubePatch, s)

    patch = CubePatch(
        CubeDeltaOperation({
            db.cardboards['Brainstorm'].from_expansion('ICE'):
            -1,
            db.cardboards['Brainstorm'].from_expansion('EMA'):
            1,
            # Trap(
            #     AllNode(
            #         (
            #             db.cardboards['Brainstorm'].from_expansion('ICE'),
            #             db.cardboards['Web'].from_expansion('LEA'),
            #         )
            #     ),
            #     intention_type=IntentionType.SYNERGY,
            # ): 2
        }),
        NodesDeltaOperation({
            # ConstrainedNode(
            #     node = AllNode(
            #         (
            #             db.cardboards['Web'].from_expansion('LEA'),
            #         )
            #     ),
            #     groups = ['ok', 'lmao'],
            #     value = 2,
            # ): 1,
            ConstrainedNode(
                node=AllNode((
                    db.cardboards['Brainstorm'].from_expansion('ICE'),
                    db.cardboards['Web'].from_expansion('LEA'),
                )),
                groups=['lolHAHA'],
                value=1,
            ):
            1,
        }))

    print(patch)

    meta_cube = MetaCube(cube, constrained_nodes, groups)

    verbose_patch = patch.as_verbose(meta_cube)

    print(verbose_patch)

    updater = CubeUpdater(meta_cube, patch)

    print(updater)

    report = UpdateReport(updater)

    for notification in report.notifications:
        print(notification.title + '\n' + notification.content + '\n\n')