In this article we demonstrate efficient singlet-tomagnetization conversion in the microTesla regime, while simultaneously achieving deuterium decoupling and suppression of singlet-triplet mixing. This is done by applying two periodically modulated fields at the same time. The first field is a sinusoidally modulated longitudinal field, as in the recently described Weak Oscillating Low Field (WOLF) technique . The second field rotates in a plane perpendicular to the first, as in the recently described Singlet-Triplet Oscillations through Rotating Magnetic Fields (STORM) method . We show that the combination of these two fields achieves selective polarization transfer with suppression of deuterium-induced relaxation. We achieve a 13 C polarization of ≃6.1% for a 50 mM solution of [1-13 C, 2,3-d 2 ]-succinic acid, in the case of a modest parahydrogen enrichment level of 50%. This result is encouraging for the application of low-field parahydrogen-induced polarization to a wide range of deuterated molecular systems.