def METHOD_NAME(
    phase,
    pore_viscosity="pore.viscosity",
    throat_viscosity="throat.viscosity",
    pore_shape_factor="pore.shape_factor",
    throat_shape_factor="throat.shape_factor",
    pore_area="pore.area",
    throat_area="throat.cross_sectional_area",
    conduit_lengths="throat.conduit_lengths",
):
    r"""
    Calculates the single phase hydraulic conductance of conduits.
    Function has been adapted for use with the Statoil imported networks
    and makes use of the shape factor in these networks to apply
    Hagen-Poiseuille flow for conduits of different shape classes:
    triangular, square and circular [2].
    Parameters
    ----------
    %(phase)s
    pore_viscosity : str
        %(dict_blurb)s pore viscosity
    throat_viscosity : str
        %(dict_blurb)s throat viscosity
    pore_shape_factor : str
        %(dict_blurb)s pore geometric shape factor
    throat_shape_factor : str
        %(dict_blurb)s throat geometric shape factor
    pore_area : str
        %(dict_blurb)s pore area
        The pore area is calculated using following formula:
        .. math::
            A_P = \frac{R_P^2}{(4 \cdot SF_P)}
        where theoratical value of pore_shape_factor in a circular tube is
        calculated using following formula:
        .. math::
            SF_P = \frac{A_P}{P_P^2} = 1/4π
    throat_area : str
        %(dict_blurb)s throat area.
        The throat area is calculated using following formula:
        .. math::
            T_A = \frac{R_T^2}{(4 \cdot SF_T)}
        where theoratical value of throat shape factor in circular tube is
        calculated using :
        .. math::
            SF_T = \frac{T_A}{T_P^2} = 1/4π
    conduit_lengths : str
        %(dict_blurb)s throat conduit lengths
    Returns
    -------
    %(return_arr)s
    References
    ----------
    [1] Valvatne, Per H., and Martin J. Blunt. "Predictive pore‐scale
    modeling of two‐phase flow in mixed wet media." Water Resources
    Research 40, no. 7 (2004).
    [2] Patzek, T. W., and D. B. Silin (2001), Shape factor and hydraulic
    conductance in noncircular capillaries I. One-phase creeping flow,
    J. Colloid Interface Sci., 236, 295–304.
    """
    network = phase.network
    conns = network["throat.conns"]
    mu_p = phase[pore_viscosity]
    mu_t = phase[throat_viscosity]
    # Fetch model parameters
    L1, Lt, L2 = network[conduit_lengths].T
    Gp = network[pore_shape_factor]
    Gt = network[throat_shape_factor]
    Ap = network[pore_area]
    At = network[throat_area]
    # Throat portions
    tri = Gt <= _np.sqrt(3) / 36.0
    circ = Gt >= 0.07
    square = ~(tri | circ)
    ntri = _np.sum(tri)
    nsquare = _np.sum(square)
    ncirc = _np.sum(circ)
    kt = _np.ones_like(Gt)
    kt[tri] = 3.0 / 5.0
    kt[square] = 0.5623
    kt[circ] = 0.5
    # Pore portions
    tri = Gp <= _np.sqrt(3) / 36.0
    circ = Gp >= 0.07
    square = ~(tri | circ)
    ntri += _np.sum(tri)
    nsquare += _np.sum(square)
    ncirc += _np.sum(circ)
    kp = _np.ones_like(Gp)
    kp[tri] = 3.0 / 5.0
    kp[square] = 0.5623
    kp[circ] = 0.5
    # Calculate conductance values
    gp = kp * Ap**2 * Gp / mu_p
    gt = kt * At**2 * Gt / mu_t
    value = L1 / gp[conns[:, 0]] + Lt / gt + L2 / gp[conns[:, 1]]
    return 1 / value