示例#1
0
def partition(comp_arrow: CompositeArrow) -> List[Set[Arrow]]:
    """Partitions the comp_arrow into sequential layers of its sub_arrows"""
    partition_arrows = []
    arrow_colors = pqdict()
    for sub_arrow in comp_arrow.get_sub_arrows():
        arrow_colors[sub_arrow] = sub_arrow.num_in_ports()

    for port in comp_arrow.in_ports():
        in_ports = comp_arrow.neigh_in_ports(port)
        for in_port in in_ports:
            assert in_port.arrow in arrow_colors, "sub_arrow not in arrow_colors"
            arrow_colors[in_port.arrow] -= 1

    while len(arrow_colors) > 0:
        arrow_layer = set()
        view_arrow, view_priority = arrow_colors.topitem()

        while view_priority == 0:
            sub_arrow, priority = arrow_colors.popitem()
            arrow_layer.add(sub_arrow)
            if len(arrow_colors) == 0:
                break
            view_arrow, view_priority = arrow_colors.topitem()

        partition_arrows.append(arrow_layer)

        for arrow in arrow_layer:
            for out_port in arrow.out_ports():
                in_ports = comp_arrow.neigh_in_ports(out_port)
                for in_port in in_ports:
                    if in_port.arrow != comp_arrow:
                        assert in_port.arrow in arrow_colors, "sub_arrow not in arrow_colors"
                        arrow_colors[in_port.arrow] -= 1

    return partition_arrows
示例#2
0
def inner_interpret(conv: Callable, comp_arrow: CompositeArrow, inputs: List,
                    arrow_colors: MutableMapping[Arrow, int],
                    arrow_inputs: Sequence, state: Dict, port_grab: Dict[Port,
                                                                         Any]):
    """Convert an comp_arrow to a tensorflow graph and add to graph"""
    assert len(inputs) == comp_arrow.num_in_ports(), "wrong # inputs"

    emit_list = []
    while len(arrow_colors) > 0:
        # print_arrow_colors(arrow_colors)
        # print("Converting ", sub_arrow.name)
        sub_arrow, priority = arrow_colors.popitem()
        if sub_arrow is not comp_arrow:
            assert priority == 0, "Must resolve {} more inputs to {} first".format(
                priority, sub_arrow)
            # inputs = [arrow_inputs[sub_arrow][i] for i in range(len(arrow_inputs[sub_arrow]))]
            inputs = [
                arrow_inputs[sub_arrow][i]
                for i in sorted(arrow_inputs[sub_arrow].keys())
            ]
            outputs = conv(sub_arrow, inputs, state)

            assert len(outputs) == len(
                sub_arrow.out_ports()), "diff num outputs"

            # Decrement the priority of each subarrow connected to this arrow
            # Unless of course it is connected to the outside word
            for i, out_port in enumerate(sub_arrow.out_ports()):
                neigh_in_ports = comp_arrow.neigh_in_ports(out_port)
                for neigh_in_port in neigh_in_ports:
                    neigh_arrow = neigh_in_port.arrow
                    arrow_colors[neigh_arrow] = arrow_colors[neigh_arrow] - 1
                    arrow_inputs[neigh_arrow][neigh_in_port.index] = outputs[i]

    # Extract some port, kind of a hack
    for port in port_grab:
        if port.arrow in arrow_inputs:
            if port.index in arrow_inputs[port.arrow]:
                port_grab[port] = arrow_inputs[port.arrow][port.index]

    outputs_dict = arrow_inputs[comp_arrow]
    out_port_indices = sorted(list(outputs_dict.keys()))
    return [outputs_dict[i] for i in out_port_indices]