def gaussian_overlapping_coefficient(means_0, stds_0, means_1, stds_1, lower=None, upper=None):
    """Compute the overlapping coefficient of two Gaussian continuous_distributions.

    This computes the :math:`\int_{-\infty}^{\infty}{\min(f(x), g(x))\partial x}` where
    :math:`f \sim \mathcal{N}(\mu_0, \sigma_0^{2})` and :math:`f \sim \mathcal{N}(\mu_1, \sigma_1^{2})` are normally
    distributed variables.

    This will compute the overlap for each element in the first dimension.

    Args:
        means_0 (ndarray): the set of means of the first distribution
        stds_0 (ndarray): the set of stds of the fist distribution
        means_1 (ndarray): the set of means of the second distribution
        stds_1 (ndarray): the set of stds of the second distribution
        lower (float): the lower limit of the integration. If not set we set it to -inf.
        upper (float): the upper limit of the integration. If not set we set it to +inf.
    """
    if lower is None:
        lower = -np.inf
    if upper is None:
        upper = np.inf

    def point_iterator():
        for ind in range(means_0.shape[0]):
            yield np.squeeze(means_0[ind]), np.squeeze(stds_0[ind]), np.squeeze(means_1[ind]), np.squeeze(stds_1[ind])

    return np.array(list(multiprocess_mapping(_ComputeGaussianOverlap(lower, upper), point_iterator())))
Compute the overlapping coefficient of two Gaussian continuous_distributions.

    This computes the :math:`\int_{-\infty}^{\infty}{\min(f(x), g(x))\partial x}` where
    :math:`f \sim \mathcal{N}(\mu_0, \sigma_0^{2})` and :math:`f \sim \mathcal{N}(\mu_1, \sigma_1^{2})` are normally
    distributed variables.

    This will compute the overlap for each element in the first dimension.

    Args:
        means_0 (ndarray): the set of means of the first distribution
        stds_0 (ndarray): the set of stds of the fist distribution
        means_1 (ndarray): the set of means of the second distribution
        stds_1 (ndarray): the set of stds of the second distribution
        lower (float): the lower limit of the integration. If not set we set it to -inf.
        upper (float): the upper limit of the integration. If not set we set it to +inf.