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arXiv · 2609.33022

Cubature-Based Statistical Moment Steering for Nonlinear, Non-Gaussian Trajectory Optimization

Daniel C. Qi·Kenshiro Oguri
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Abstract

This paper addresses discrete-time non-Gaussian distribution steering in deterministic nonlinear systems. Distribution steering is a problem in which a control policy is designed over a distribution of trajectories rather than optimizing a single trajectory. The challenge with nonlinear systems is that even initially Gaussian distributions evolve into non-Gaussian distributions, often precluding a closed-form representation of the probability density. A method called statistical moment steering applies a cubature-based method to approximate non-Gaussian distributions for an approximate solution to this problem. This paper provides theoretical support and details how it can be solved with sequential convex optimization. A coupled, nonlinear, second-order ordinary differential equation describing a two-dimensional oscillator is provided as a numerical example.

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Daniel C. Qi, Kenshiro Oguri. 2026-09-26. Cubature-Based Statistical Moment Steering for Nonlinear, Non-Gaussian Trajectory Optimization. https://arxiv.org/abs/2609.33022

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