Living Control Systems: Exploring a Teleonomic Account of Behavior in Apis mellifera

Self-regulatory foraging behavior in honey bees (<i>Apis mellifera</i>) was investigated using the framework of Perceptual Control Theory (PCT). We developed a PCT-based model to describe how bees maintain goal-directed behavior, specifically targeting a sucrose-rich feeding site while overcoming a wind disturbance. In a controlled experiment, we found that 13 of 14 bees could successfully adjust their flight paths to overcome the disturbance and consistently reach the feeding target. While they demonstrated a great deal of individual variability regarding how they overcame the wind across experimental trials, they did so by finally adopting a headwind (i.e., flying into the wind) approach pattern rather than tailwind or crosswind approach patterns. These results support the application of PCT to the study of behavior in honey bees, which can be regarded as self-regulative (i.e., non-linear and dynamic) rather than as linear sequences of inputs and outputs. Given that such dynamic models are concerned with the functions or purposes of behavior, they may also be classified as teleonomic.

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Publication Details

Journal
Insects
Published
2025-08-16
DOI
https://doi.org/10.3390/insects16080848
Primary Topic
Plant and animal studies
Type
article
Field-Weighted Citation Impact
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article

Living Control Systems: Exploring a Teleonomic Account of Behavior in Apis mellifera

Charles I. Abramson, James W. Grice, Ian T. Jones
Insects
Plant and animal studies
article

Living Control Systems: Exploring a Teleonomic Account of Behavior in Apis mellifera

Charles I. Abramson, James W. Grice, Ian T. Jones
article en

Abstract

Self-regulatory foraging behavior in honey bees (<i>Apis mellifera</i>) was investigated using the framework of Perceptual Control Theory (PCT). We developed a PCT-based model to describe how bees maintain goal-directed behavior, specifically targeting a sucrose-rich feeding site while overcoming a wind disturbance. In a controlled experiment, we found that 13 of 14 bees could successfully adjust their flight paths to overcome the disturbance and consistently reach the feeding target. While they demonstrated a great deal of individual variability regarding how they overcame the wind across experimental trials, they did so by finally adopting a headwind (i.e., flying into the wind) approach pattern rather than tailwind or crosswind approach patterns. These results support the application of PCT to the study of behavior in honey bees, which can be regarded as self-regulative (i.e., non-linear and dynamic) rather than as linear sequences of inputs and outputs. Given that such dynamic models are concerned with the functions or purposes of behavior, they may also be classified as teleonomic.

InsectsVol. 16(8)
Oklahoma State University (US), Engineering Research & Analysis (United States) (US)
Openalex Percentile: Top 83%
Plant and animal studies
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Living Control Systems: Exploring a Teleonomic Account of Behavior in Apis mellifera — Charles I. Abramson, James W. Grice, et al. · Insects (2025) | TGRS Research Map | TGRS