Modeling Innovations: Levels of Complexity in the Discovery of Novel Scientific Methods

Scientists often disagree on the best theory to describe a scientific event. While such debates are a natural part of healthy scientific discourse, the timeframe for scientists to converge on an ideal method may not always align with real-life knowledge dynamics. In this article, I use an event from the history of chemistry as inspiration to develop Agent-Based Models of epistemic networks, exploring method selection within a scientific community. These models reveal several situations where incorrect, simpler methods can persist, even when substantial evidence supports a more complex method. This becomes particularly evident when different evidence-sharing timeframes are analyzed. The network structure connecting the scientists plays a crucial role in determining how and when convergence on the correct method is achieved, guided by real-world evidence. This framework provides a foundation for further exploration of scientists’ behavior in past and future discoveries, as well as how agents internalize scientific information.

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Publication Details

Journal
Philosophies
Published
2024-12-31
DOI
https://doi.org/10.3390/philosophies10010001
Primary Topic
Complex Systems and Decision Making
Type
article
Field-Weighted Citation Impact
0.00

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article

Modeling Innovations: Levels of Complexity in the Discovery of Novel Scientific Methods

José Ferraz-Caetano
Philosophies
Complex Systems and Decision Making
article

Modeling Innovations: Levels of Complexity in the Discovery of Novel Scientific Methods

José Ferraz-Caetano
article en

Abstract

Scientists often disagree on the best theory to describe a scientific event. While such debates are a natural part of healthy scientific discourse, the timeframe for scientists to converge on an ideal method may not always align with real-life knowledge dynamics. In this article, I use an event from the history of chemistry as inspiration to develop Agent-Based Models of epistemic networks, exploring method selection within a scientific community. These models reveal several situations where incorrect, simpler methods can persist, even when substantial evidence supports a more complex method. This becomes particularly evident when different evidence-sharing timeframes are analyzed. The network structure connecting the scientists plays a crucial role in determining how and when convergence on the correct method is achieved, guided by real-world evidence. This framework provides a foundation for further exploration of scientists’ behavior in past and future discoveries, as well as how agents internalize scientific information.

PhilosophiesVol. 10(1)
Universidade do Porto (PT), Rede de Química e Tecnologia (PT)
Fundação para a Ciência e a Tecnologia
Openalex Percentile: Top 70%
Complex Systems and Decision Making
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