A Convex Model Predictive Control Barrier Function Approach for Differentially Flat Systems

This brief provides a novel approach for online synthesis of predictive control barrier function (CBF)-based safety filters and controllers for differentially flat, input-constrained systems. A local convex approximation to the safe set is inflated around the current system state and used to formulate a set of discrete-time affine CBF constraints. These constraints are enforced over a finite prediction horizon using a discrete-time convex model predictive control (MPC) formulation that can be solved at each sample instant. This approach is tractable for cases when the original safe set is defined by one or more concave or convex-ellipsoidal barrier functions, and is applicable even when the number or configuration of these barriers can change during runtime. This methodology is extended to enable simultaneous control Lyapunov function (CLF) enforcement within the same MPC framework, and both approaches are demonstrated in simulation.

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Publication Details

Journal
IEEE Transactions on Control Systems Technology
Published
2025-07-14
DOI
https://doi.org/10.1109/tcst.2025.3585086
Citations
1
Primary Topic
Advanced Control Systems Optimization
Type
article
Field-Weighted Citation Impact
1.21

Funders

Controls
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article

A Convex Model Predictive Control Barrier Function Approach for Differentially Flat Systems

M. Cody Priess
1 citations
IEEE Transactions on Control Systems Technology
Advanced Control Systems Optimization
1.21
article

A Convex Model Predictive Control Barrier Function Approach for Differentially Flat Systems

M. Cody Priess
article en
1 citations

Abstract

This brief provides a novel approach for online synthesis of predictive control barrier function (CBF)-based safety filters and controllers for differentially flat, input-constrained systems. A local convex approximation to the safe set is inflated around the current system state and used to formulate a set of discrete-time affine CBF constraints. These constraints are enforced over a finite prediction horizon using a discrete-time convex model predictive control (MPC) formulation that can be solved at each sample instant. This approach is tractable for cases when the original safe set is defined by one or more concave or convex-ellipsoidal barrier functions, and is applicable even when the number or configuration of these barriers can change during runtime. This methodology is extended to enable simultaneous control Lyapunov function (CLF) enforcement within the same MPC framework, and both approaches are demonstrated in simulation.

IEEE Transactions on Control Systems TechnologyVol. 33(6)
Mitre (United States) (US)
Shenzhen Research and Development Program
Climate action
Openalex Percentile: Top 19%
Advanced Control Systems Optimization
1.21
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