de Carbonnel Matthieu, Stormonth-Darling John M, Liu Weiqi, Kuziak Dmytro, Jones Matthew Alan
Oxfarm Developments, 4125 Riehen, Switzerland.
UK Urban AgriTech (UKUAT) Ltd., Liverpool L1 0AF, UK.
Biology (Basel). 2022 Jun 16;11(6):922. doi: 10.3390/biology11060922.
Intensive agriculture is essential to feed increasing populations, yet requires large amounts of pesticide, fertiliser, and water to maintain productivity. One solution to mitigate these issues is the adoption of Vertical Farming Systems (VFS). The self-contained operation of these facilities offers the potential to recycle agricultural inputs, as well as sheltering crops from the effects of climate change. Recent technological advancements in light-emitting diode (LED) lighting technology have enabled VFS to become a commercial reality, although high electrical consumption continues to tarnish the environmental credentials of the industry. In this review, we examine how the inherent use of electricity by VFS can be leveraged to deliver commercial and environmental benefits. We propose that an understanding of plant photobiology can be used to vary VFS energy consumption in coordination with electrical availability from the grid, facilitating demand-side management of energy supplies and promoting crop yield.
集约化农业对于养活不断增长的人口至关重要,但需要大量的农药、化肥和水来维持产量。缓解这些问题的一个解决方案是采用垂直耕作系统(VFS)。这些设施的独立运行提供了回收农业投入物的潜力,同时也能保护作物免受气候变化的影响。发光二极管(LED)照明技术最近的技术进步使垂直耕作系统成为商业现实,尽管高耗电量继续损害该行业的环境声誉。在本综述中,我们研究了如何利用垂直耕作系统固有的电力使用来实现商业和环境效益。我们建议,对植物光生物学的理解可用于根据电网的电力供应情况来改变垂直耕作系统的能源消耗,促进能源供应的需求侧管理并提高作物产量。