State-of-the-art model-based control strategies have demonstrated success in enabling dynamic locomotion behaviors such as flying, hopping, and walking in robotic systems. However, the performance of these behaviors in practice remains inadequate, particularly due to the inherent discrepancies between the modeled dynamics and the physical hardware, which inevitably lead to trajectory tracking errors. To mitigate this issue, we propose a semi-implicit control framework that bridges the model-to-real gap by incorporating a data-driven control approach combined with the existing model-based design. We validate the proposed method on PogoX, a custom-designed multi-modal locomotion robot, demonstrating high-precision hopping and flying behaviors in both simulation and real-world experiments. This semi-implicit control paradigm offers a generalizable solution for improving performance across a broad range of robotic platforms and locomotion behaviors.