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arXiv · 2606.18863

A Finite-Gain Stability Approach to NMPC Design: the Extended Version

Carlo Novara·Mattia Boggio·Lorenzo Calogero·Michele Pagone
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Abstract

This paper proposes a novel approach to design of Nonlinear Model Predictive Control (NMPC) schemes based on Finite-Gain Stability (FGS) concepts. The proposed formulation considers the case where the plant is affected by unknown but bounded disturbances, which renders difficult the classical Lyapunov-based analysis/design. Based on FGS conditions for a closed-loop system, we develop a systematic NMPC design methodology, allowing us to choose the relevant NMPC parameters that lead to closed-loop FGS and provide a satisfactory tracking performance, also for the case of time-varying reference signals. A simulated example is presented to demonstrate the effectiveness of our framework, concerned with lateral/longitudinal control of an automated vehicle.

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Carlo Novara, Mattia Boggio, Lorenzo Calogero, Michele Pagone. 2026-06-17. A Finite-Gain Stability Approach to NMPC Design: the Extended Version. https://arxiv.org/abs/2606.18863

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