Work Versus Force: Simultaneous Processes for Describing Interactions

IF 2.8
Advanced Physics Research Pub Date : 2026-06-11 Epub Date: 2026-04-22 DOI:10.1002/apxr.202500198
Grit Kalies, Duong D. Do, Cornelia Breitkopf
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Abstract

Achieving a unified description of interactions remains an open challenge in theoretical physics, which currently describes four fundamental forces. This situation may be viewed differently when interactions are formulated in terms of processes (work as actio) rather than forces (force as actio), not only at the macroscopic level but also at the quantum level. This paper contrasts force-based and work-based approaches to interaction and we argue that acting forces serve as a geometric surrogate rather than as an explicit representation of the underlying simultaneous processes. Simple examples – such as lifting, acceleration, and displacement of a body, as well as processes involving quantum objects – are used to illustrate the applicability of process equations, including that form of work describing a change in the momentum of a body or particle. The results suggest that a work-based approach to interactions is a serious alternative to the force-based one and could pave the way toward a deterministic formulation of quantum theory.

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功与力:描述相互作用的同时过程
实现相互作用的统一描述仍然是理论物理学中的一个公开挑战,目前理论物理学描述了四种基本力。当相互作用被表述为过程(功作为作用)而不是力(力作为作用)时,这种情况可能会被不同地看待,不仅在宏观层面,而且在量子层面。本文对比了以力为基础和以工作为基础的相互作用方法,我们认为,作用力作为一种几何替代,而不是作为潜在同步过程的明确表示。简单的例子——比如物体的提升、加速度和位移,以及涉及量子物体的过程——被用来说明过程方程的适用性,包括描述物体或粒子动量变化的功的形式。结果表明,基于工作的相互作用方法是基于力的相互作用方法的重要替代方案,并可能为量子理论的确定性公式铺平道路。
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