Use the paper's fast-layer/reduced-problem decomposition as a training schedule: first optimize a cheap reduced neural dynamics on the critical manifold, then gradually restore the fast dynamics by increasing the stiffness parameter. This provides a continuation path from an easy slow problem to the intended recurrent or implicit model and supplies a concrete stopping criterion based on normal-hyperbolicity loss.
Replace continuous stochastic-gradient updates by a flashing schedule with alternating ON phases, where gradients act normally, and OFF phases, where gradients are suppressed or weakened and controlled noise allows escape from local traps. Estimate directional asymmetry of the local loss basin from forward and backward probe distances, then set the flashing frequency using the ratchet resonance law so that noise-assisted transitions preferentially produce net progress toward lower loss.