Non-Equilibrium Dynamic Systems: Mechanisms of Active Pressure Rectification for Static Lift Generation

This position paper explores the theoretical possibility of generating a net upward force (lift) through the rectification of active pressure in non-equilibrium systems. By focusing on the interaction between active matter and asymmetric "ratchet" surfaces, the work proposes a mechanism to convert internal kinetic energy and stochastic fluctuations into directed mechanical work. The analysis bridges concepts from gyroscopic stability and molecular roto-vibrational dynamics to the "swim pressure" framework of active particles. Potential applications are discussed with a specific emphasis on micro-scale robotics (MEMS) and autonomous synthetic swimmers where viscous forces dominate. This study serves as a conceptual foundation for future experimental investigations into entropic-driven levitation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-13
DOI
https://doi.org/10.5281/zenodo.18232680
Primary Topic
Micro and Nano Robotics
Type
article
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article

Non-Equilibrium Dynamic Systems: Mechanisms of Active Pressure Rectification for Static Lift Generation

Walter Allasia
Zenodo (CERN European Organization for Nuclear Research)
Micro and Nano Robotics
article

Non-Equilibrium Dynamic Systems: Mechanisms of Active Pressure Rectification for Static Lift Generation

Walter Allasia
article en

Abstract

This position paper explores the theoretical possibility of generating a net upward force (lift) through the rectification of active pressure in non-equilibrium systems. By focusing on the interaction between active matter and asymmetric "ratchet" surfaces, the work proposes a mechanism to convert internal kinetic energy and stochastic fluctuations into directed mechanical work. The analysis bridges concepts from gyroscopic stability and molecular roto-vibrational dynamics to the "swim pressure" framework of active particles. Potential applications are discussed with a specific emphasis on micro-scale robotics (MEMS) and autonomous synthetic swimmers where viscous forces dominate. This study serves as a conceptual foundation for future experimental investigations into entropic-driven levitation.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 85%
Micro and Nano Robotics
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