def run_and_measure(self, quil_program: Program, qubits: List[int] = None, trials: int = 1,
                        memory_map: Any = None) -> np.ndarray:
        """
        Run a Quil program once to determine the final wavefunction, and measure multiple times.

        Alternatively, consider using ``wavefunction`` and calling ``sample_bitstrings`` on the
        resulting object.

        For a large wavefunction and a low-medium number of trials, use this function.
        On the other hand, if you're sampling a small system many times you might want to
        use ``Wavefunction.sample_bitstrings``.

        .. note:: If your program contains measurements or noisy gates, this method may not do what
            you want. If the execution of ``quil_program`` is **non-deterministic** then the
            final wavefunction from which the returned bitstrings are sampled itself only
            represents a stochastically generated sample and the outcomes sampled from
            *different* ``run_and_measure`` calls *generally sample different bitstring
            distributions*.

        :param quil_program: The program to run and measure
        :param qubits: An optional list of qubits to measure. The order of this list is
            respected in the returned bitstrings. If not provided, all qubits used in
            the program will be measured and returned in their sorted order.
        :param int trials: Number of times to sample from the prepared wavefunction.
        :param memory_map: An assignment of classical registers to values, representing an initial
                           state for the QAM's classical memory.

                           This is expected to be of type Dict[str, List[Union[int, float]]],
                           where the keys are memory region names and the values are arrays of
                           initialization data.

                           For now, we also support input of type Dict[MemoryReference, Any],
                           but this is deprecated and will be removed in a future release.
        :return: An array of measurement results (0 or 1) of shape (trials, len(qubits))
        """
        if qubits is None:
            qubits = sorted(quil_program.get_qubits(indices=True))

        if memory_map is not None:
            quil_program = self.augment_program_with_memory_values(quil_program, memory_map)

        return self.connection._run_and_measure(quil_program=quil_program, qubits=qubits,
                                                trials=trials,
                                                random_seed=self.random_seed)
Run a Quil program once to determine the final wavefunction, and measure multiple times.

        Alternatively, consider using ``wavefunction`` and calling ``sample_bitstrings`` on the
        resulting object.

        For a large wavefunction and a low-medium number of trials, use this function.
        On the other hand, if you're sampling a small system many times you might want to
        use ``Wavefunction.sample_bitstrings``.

        .. note:: If your program contains measurements or noisy gates, this method may not do what
            you want. If the execution of ``quil_program`` is **non-deterministic** then the
            final wavefunction from which the returned bitstrings are sampled itself only
            represents a stochastically generated sample and the outcomes sampled from
            *different* ``run_and_measure`` calls *generally sample different bitstring
            distributions*.

        :param quil_program: The program to run and measure
        :param qubits: An optional list of qubits to measure. The order of this list is
            respected in the returned bitstrings. If not provided, all qubits used in
            the program will be measured and returned in their sorted order.
        :param int trials: Number of times to sample from the prepared wavefunction.
        :param memory_map: An assignment of classical registers to values, representing an initial
                           state for the QAM's classical memory.

                           This is expected to be of type Dict[str, List[Union[int, float]]],
                           where the keys are memory region names and the values are arrays of
                           initialization data.

                           For now, we also support input of type Dict[MemoryReference, Any],
                           but this is deprecated and will be removed in a future release.
        :return: An array of measurement results (0 or 1) of shape (trials, len(qubits))