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通过育种提高可控环境农业中的作物产量。

Improvement of crop production in controlled environment agriculture through breeding.

作者信息

Bhattarai Krishna, Ogden Andrew B, Pandey Sudeep, Sandoya Germán V, Shi Ainong, Nankar Amol N, Jayakodi Murukarthick, Huo Heqiang, Jiang Tao, Tripodi Pasquale, Dardick Chris

机构信息

Department of Horticultural Sciences, Texas A&M University, Texas A&M AgriLife Research and Extension Center, Dallas, TX, United States.

Department of Horticulture, University of Georgia, Griffin, GA, United States.

出版信息

Front Plant Sci. 2025 Jan 27;15:1524601. doi: 10.3389/fpls.2024.1524601. eCollection 2024.

Abstract

Controlled environment agriculture (CEA) represents one of the fastest-growing sectors of horticulture. Production in controlled environments ranges from highly controlled indoor environments with 100% artificial lighting (vertical farms or plant factories) to high-tech greenhouses with or without supplemental lighting, to simpler greenhouses and high tunnels. Although food production occurs in the soil inside high tunnels, most CEA operations use various hydroponic systems to meet crop irrigation and fertility needs. The expansion of CEA offers promise as a tool for increasing food production in and near urban systems as these systems do not rely on arable agricultural land. In addition, CEA offers resilience to climate instability by growing inside protective structures. Products harvested from CEA systems tend to be of high quality, both internal and external, and are sought after by consumers. Currently, CEA producers rely on cultivars bred for production in open-field agriculture. Because of high energy and other production costs in CEA, only a limited number of food crops have proven themselves to be profitable to produce. One factor contributing to this situation may be a lack of optimized cultivars. Indoor growing operations offer opportunities for breeding cultivars that are ideal for these systems. To facilitate breeding these specialized cultivars, a wide range of tools are available for plant breeders to help speed this process and increase its efficiency. This review aims to cover breeding opportunities and needs for a wide range of horticultural crops either already being produced in CEA systems or with potential for CEA production. It also reviews many of the tools available to breeders including genomics-informed breeding, marker-assisted selection, precision breeding, high-throughput phenotyping, and potential sources of germplasm suitable for CEA breeding. The availability of published genomes and trait-linked molecular markers should enable rapid progress in the breeding of CEA-specific food crops that will help drive the growth of this industry.

摘要

可控环境农业(CEA)是园艺领域中发展最快的部门之一。可控环境下的生产范围广泛,从配备100%人工照明的高度可控室内环境(垂直农场或植物工厂),到有或没有补充照明的高科技温室,再到更简单的温室和高拱棚。尽管高拱棚内的土壤中进行粮食生产,但大多数CEA作业使用各种水培系统来满足作物灌溉和肥力需求。CEA的扩张有望成为增加城市系统及其周边地区粮食产量的工具,因为这些系统不依赖于耕地。此外,CEA通过在保护结构内种植,对气候不稳定具有抵御能力。从CEA系统收获的产品在内部和外部质量往往都很高,受到消费者的青睐。目前,CEA生产者依赖于为露天农业生产培育的品种。由于CEA中的能源和其他生产成本高昂,只有少数粮食作物已证明具有生产盈利性。造成这种情况的一个因素可能是缺乏优化的品种。室内种植作业为培育适合这些系统的理想品种提供了机会。为了促进这些特殊品种的培育,植物育种者可以使用多种工具来帮助加快这一过程并提高其效率。本综述旨在涵盖已在CEA系统中生产或具有CEA生产潜力的多种园艺作物的育种机会和需求。它还回顾了育种者可用的许多工具,包括基因组学辅助育种、标记辅助选择、精准育种、高通量表型分析,以及适合CEA育种的种质潜在来源。已发表的基因组和与性状相关的分子标记的可用性应能推动CEA特定粮食作物育种的快速进展,这将有助于推动该行业的发展。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b60/11808156/5117c7273a27/fpls-15-1524601-g001.jpg

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