Griparić Karlo, Haus Tomislav, Miklić Damjan, Polić Marsela, Bogdan Stjepan
University of Zagreb, Faculty of Electrical Engineering and Computing, Zagreb, Croatia.
PLoS One. 2017 Aug 9;12(8):e0181977. doi: 10.1371/journal.pone.0181977. eCollection 2017.
In this paper, we present a novel robotic system developed for researching collective social mechanisms in a biohybrid society of robots and honeybees. The potential for distributed coordination, as observed in nature in many different animal species, has caused an increased interest in collective behaviour research in recent years because of its applicability to a broad spectrum of technical systems requiring robust multi-agent control. One of the main problems is understanding the mechanisms driving the emergence of collective behaviour of social animals. With the aim of deepening the knowledge in this field, we have designed a multi-robot system capable of interacting with honeybees within an experimental arena. The final product, stationary autonomous robot units, designed by specificaly considering the physical, sensorimotor and behavioral characteristics of the honeybees (lat. Apis mallifera), are equipped with sensing, actuating, computation, and communication capabilities that enable the measurement of relevant environmental states, such as honeybee presence, and adequate response to the measurements by generating heat, vibration and airflow. The coordination among robots in the developed system is established using distributed controllers. The cooperation between the two different types of collective systems is realized by means of a consensus algorithm, enabling the honeybees and the robots to achieve a common objective. Presented results, obtained within ASSISIbf project, show successful cooperation indicating its potential for future applications.
在本文中,我们展示了一个为研究机器人与蜜蜂的生物混合社会中的集体社会机制而开发的新型机器人系统。近年来,由于分布式协调在许多不同动物物种中都有体现,且其适用于广泛需要强大多智能体控制的技术系统,所以对集体行为研究的兴趣日益增加。其中一个主要问题是理解驱动群居动物集体行为出现的机制。为了加深该领域的知识,我们设计了一个能够在实验场地内与蜜蜂互动的多机器人系统。最终产品是固定的自主机器人单元,通过特别考虑蜜蜂(西方蜜蜂,拉丁学名Apis mellifera)的物理、传感运动和行为特征进行设计,配备了传感、驱动、计算和通信能力,能够测量相关环境状态,如蜜蜂的存在,并通过产生热量、振动和气流对测量结果做出适当反应。所开发系统中的机器人之间的协调是使用分布式控制器建立的。两种不同类型的集体系统之间的合作通过一种共识算法实现,使蜜蜂和机器人能够实现共同目标。在ASSISIbf项目中获得的呈现结果表明了成功的合作,显示了其在未来应用中的潜力。