A Case Study of Digital Twin for Greenhouse Horticulture Production Flow

D. A. Howard, Zheng Ma, B. Jørgensen
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引用次数: 1

Abstract

Greenhouse horticulture production is associated with high uncertainty and a long learning process due to its high dependency on the outdoor & indoor environment and plant types. Digital Twin (DT) technology enables a faster understanding of greenhouse horticulture facilities, obtaining insight into the production process flow and investigating the consequences of production decisions. However, no digital twin has been developed in this field due to the complexity of greenhouse production. Therefore, this paper presents a case study of a DT development for a Danish greenhouse production flow using multi-method modeling and multi-agent simulation. The results show that the developed DT can accurately represent the greenhouse production process and estimate the plant growth state with an absolute error of 0.31 days compared to the observed production. Furthermore, the developed DT can accurately predict deviations to the plant growth state corresponding to previously observed behavior at the facility. To capture the greenhouse production process flow at the top-level greenhouse DT agent, the underlying physical agents developed included: compartments, growth climate, conveyors, staff, tables, plants, soil machine, table loading, and packing station as well as the packing station. Lastly, the developed DT method supports agent re-usability for other case studies.
数字孪生技术在温室园艺生产流程中的应用
由于温室园艺生产高度依赖于室内外环境和植物类型,因此具有很高的不确定性和长期的学习过程。数字孪生(DT)技术可以更快地了解温室园艺设施,深入了解生产流程并调查生产决策的后果。然而,由于温室生产的复杂性,在这一领域还没有开发出数字双胞胎。因此,本文采用多方法建模和多主体仿真,对丹麦温室生产流程的DT开发进行了案例研究。结果表明,所开发的DT能较准确地反映大棚生产过程,估计植株生长状态,与观测产量相比,绝对误差为0.31 d。此外,开发的DT可以准确地预测与之前在设施中观察到的行为相对应的植物生长状态的偏差。为了在顶层温室DT代理中捕捉温室生产过程流程,开发的底层物理代理包括:隔间、生长气候、传送带、工作人员、工作台、植物、土壤机、工作台装载、包装站以及包装站。最后,开发的DT方法支持其他案例研究的代理可重用性。
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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