Agency, Goal-Directed Behavior, and Part-Whole Relationships in Biological Systems

IF 1.9 Q1 HISTORY & PHILOSOPHY OF SCIENCE Biological theory Pub Date : 2023-11-08 DOI:10.1007/s13752-023-00447-z
Richard Watson
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Abstract

Abstract In this essay we aim to present some considerations regarding a minimal but concrete notion of agency and goal-directed behavior that are useful for characterizing biological systems at different scales. These considerations are a particular perspective, bringing together concepts from dynamical systems, combinatorial problem-solving, and connectionist learning with an emphasis on the relationship between parts and wholes. This perspective affords some ways to think about agents that are concrete and quantifiable, and relevant to some important biological issues. Instead of advocating for a strict definition of minimally agential characteristics, we focus on how (even for a modest notion of agency) the agency of a system can be more than the sum of the agency of its parts. We quantify this in terms of the problem-solving competency of a system with respect to resolution of the frustrations between its parts. This requires goal-directed behavior in the sense of delayed gratification, i.e., taking dynamical trajectories that forego short-term gains (or sustain short-term stress or frustration) in favor of long-term gains. In order for this competency to belong to the system (rather than to its parts or given by its construction or design), it can involve distributed systemic knowledge that is acquired through experience, i.e., changes in the organization of the relationships among its parts (without presupposing a system-level reward function for such changes). This conception of agency helps us think about the ways in which cells, organisms, and perhaps other biological scales, can be agential (i.e., more agential than their parts) in a quantifiable sense, without denying that the behavior of the whole depends on the behaviors of the parts in their current organization.
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生物系统中的代理、目标导向行为和部分-整体关系
在这篇文章中,我们旨在提出一些关于代理和目标导向行为的最小但具体的概念的考虑,这些概念有助于在不同尺度上表征生物系统。这些考虑是一个特殊的视角,将动力系统、组合问题解决和连接主义学习的概念结合在一起,强调部分与整体之间的关系。这种观点提供了一些思考具体的、可量化的、与一些重要的生物学问题相关的因素的方法。我们不提倡对最低限度代理特征进行严格定义,而是关注一个系统的代理如何(即使对于一个适度的代理概念)超过其各部分代理的总和。我们根据一个系统的解决问题的能力来量化它,这个能力是关于解决它的各个部分之间的挫折的。这需要在延迟满足意义上的目标导向行为,即采取动态轨迹,放弃短期收益(或维持短期压力或挫折),以支持长期收益。为了使这种能力属于系统(而不是属于它的部分或由它的构造或设计给出),它可以涉及通过经验获得的分布式系统知识,即,在其部分之间关系的组织中的变化(没有预先假设系统级奖励功能的这种变化)。能动性的概念帮助我们思考细胞、有机体和其他生物尺度在可量化意义上具有能动性的方式(即,比它们的部分更具能动性),而不否认整体的行为取决于它们当前组织中部分的行为。
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