Catalytic evolution of cooperation in a population with behavioral bimodality.

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Anhui Sheng, Jing Zhang, Guozhong Zheng, Jiqiang Zhang, Weiran Cai, Li Chen
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Abstract

The remarkable adaptability of humans in response to complex environments is often demonstrated by the context-dependent adoption of different behavioral modes. However, the existing game-theoretic studies mostly focus on the single-mode assumption, and the impact of this behavioral multimodality on the evolution of cooperation remains largely unknown. Here, we study how cooperation evolves in a population with two behavioral modes. Specifically, we incorporate Q-learning and Tit-for-Tat (TFT) rules into our toy model and investigate the impact of the mode mixture on the evolution of cooperation. While players in a Q-learning mode aim to maximize their accumulated payoffs, players within a TFT mode repeat what their neighbors have done to them. In a structured mixing implementation where the updating rule is fixed for each individual, we find that the mode mixture greatly promotes the overall cooperation prevalence. The promotion is even more significant in the probabilistic mixing, where players randomly select one of the two rules at each step. Finally, this promotion is robust when players adaptively choose the two modes by a real-time comparison. In all three scenarios, players within the Q-learning mode act as catalyzers that turn the TFT players to be more cooperative and as a result drive the whole population to be highly cooperative. The analysis of Q-tables explains the underlying mechanism of cooperation promotion, which captures the "psychological evolution" in the players' minds. Our study indicates that the variety of behavioral modes is non-negligible and could be crucial to clarify the emergence of cooperation in the real world.

行为双模性群体中合作的催化进化
人类在应对复杂环境时所表现出的非凡适应能力往往体现在根据具体情况采取不同的行为模式上。然而,现有的博弈论研究大多集中在单模式假设上,这种行为多模式对合作演化的影响在很大程度上仍是未知数。在这里,我们研究了合作如何在具有两种行为模式的种群中演化。具体来说,我们在玩具模型中加入了 Q-learning 和 Tit-for-Tat (TFT) 规则,并研究了混合模式对合作演化的影响。在 Q-learning 模式下,玩家的目标是最大化他们的累积回报,而在 TFT 模式下,玩家则会重复他们的邻居对他们所做的事情。在结构化混合实施中,每个个体的更新规则都是固定的,我们发现模式混合极大地促进了整体合作的流行。在概率混合中,这种促进作用更为显著,因为在这种混合中,玩家每一步都会随机选择两种规则中的一种。最后,当玩家通过实时比较自适应地选择两种模式时,这种促进作用是稳健的。在所有三种情况下,Q-learning 模式下的棋手都起到了催化剂的作用,使 TFT 棋手变得更加合作,从而推动整个群体高度合作。对 Q 表的分析解释了促进合作的内在机制,抓住了玩家心中的 "心理演变"。我们的研究表明,行为模式的多样性是不可忽视的,这对于澄清现实世界中合作的出现至关重要。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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