Zeidler Conrad, Zabel Paul, Vrakking Vincent, Dorn Markus, Bamsey Matthew, Schubert Daniel, Ceriello Antonio, Fortezza Raimondo, De Simone Domenico, Stanghellini Cecilia, Kempkes Frank, Meinen Esther, Mencarelli Angelo, Swinkels Gert-Jan, Paul Anna-Lisa, Ferl Robert J
EDEN Research Group, Institute of Space Systems, Department of System Analysis Space Segment, German Aerospace Center (DLR), Bremen, Germany.
Navigation and Science Organisation Unit, Telespazio S.p.A, Naples, Italy.
Front Plant Sci. 2019 Nov 22;10:1457. doi: 10.3389/fpls.2019.01457. eCollection 2019.
The EDEN ISS project has the objective to test key technologies and processes for higher plant cultivation with a focus on their application to long duration spaceflight. A mobile plant production facility was designed and constructed by an international consortium and deployed to the German Antarctic Neumayer Station III. Future astronaut crews, even if well-trained and provided with detailed procedures, cannot be expected to have the competencies needed to deal with all situations that will arise during a mission. Future space crews, as they are today, will be supported by expert backrooms on the ground. For future space-based greenhouses, monitoring the crops and the plant growth system increases system reliability and decreases the crew time required to maintain them. The EDEN ISS greenhouse incorporates a Plant Health Monitoring System to provide remote support for plant status assessment and early detection of plant stress or disease. The EDEN ISS greenhouse has the capability to automatically capture and distribute images from its suite of 32 high-definition color cameras. Collected images are transferred over a satellite link to the EDEN ISS Mission Control Center in Bremen and to project participants worldwide. Upon reception, automatic processing software analyzes the images for anomalies, evaluates crop performance, and predicts the days remaining until harvest of each crop tray. If anomalies or sub-optimal performance is detected, the image analysis system generates automatic warnings to the agronomist team who then discuss, communicate, or implement countermeasure options. A select number of Dual Wavelength Spectral Imagers have also been integrated into the facility for plant health monitoring to detect potential plant stress before it can be seen on the images taken by the high-definition color cameras. These imagers and processing approaches are derived from traditional space-based imaging techniques but permit new discoveries to be made in a facility like the EDEN ISS greenhouse in which, essentially, every photon of input and output can be controlled and studied. This paper presents a description of the EDEN ISS Plant Health Monitoring System, basic image analyses, and a summary of the results from the initial year of Antarctic operations.
伊甸园国际空间站项目旨在测试高等植物栽培的关键技术和流程,重点是其在长期太空飞行中的应用。一个移动植物生产设施由一个国际财团设计并建造,并部署到了德国南极新迈尔三号站。未来的宇航员团队,即使训练有素并配备详细的程序,也不能期望他们具备应对任务期间出现的所有情况所需的能力。未来的太空船员,就像现在一样,将得到地面专家团队的支持。对于未来基于太空的温室,监测作物和植物生长系统可提高系统可靠性,并减少船员维护它们所需的时间。伊甸园国际空间站温室集成了一个植物健康监测系统,以提供对植物状态评估的远程支持,并早期检测植物压力或疾病。伊甸园国际空间站温室有能力自动捕捉并分发其32台高清彩色摄像机拍摄的图像。收集到的图像通过卫星链路传输到位于不来梅的伊甸园国际空间站任务控制中心以及全球的项目参与者手中。接收到图像后,自动处理软件会分析图像是否存在异常、评估作物表现,并预测每个作物托盘收获前剩余的天数。如果检测到异常或表现欠佳,图像分析系统会自动向农艺师团队发出警告,然后他们会讨论、沟通或实施应对措施选项。还在该设施中集成了一些双波长光谱成像仪用于植物健康监测,以便在高清彩色摄像机拍摄的图像中还看不到潜在植物压力之前就检测到它。这些成像仪和处理方法源自传统的天基成像技术,但允许在像伊甸园国际空间站温室这样的设施中做出新的发现,在该设施中,基本上可以控制和研究输入和输出的每一个光子。本文介绍了伊甸园国际空间站植物健康监测系统、基本图像分析以及南极运行第一年的结果总结。