Bio-Economic Hybrid Incentives: Neural Reward Shaping for Bio-Hybrid Swarms

Triet & Thinch's cyborg cockroach swarms reveal a critical tension: biological adaptability vs. behavioral consistency. While they use decentralized control, we propose embedding economic incentives directly into biological agents via neuromodulation. Building on Hughes et al.'s inequity aversion principles but applying them biologically, individual insects could receive real-time neurochemical rewards for cooperative behaviors. This creates a bio-embedded market mechanism where insects "internalize" social preferences. Unlike Yang et al.'s LLM-based conflict resolution, this approach minimizes external computation by leveraging biological reward circuits. For example, in search-and-rescue operations where packet dropouts (Shi et al.) disrupt communication, bio-economic incentives could maintain cohesion even when digital signals fail. This cross-disciplinary synthesis could redefine how we approach bio-hybrid coordination.

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