制定西澳大利亚桃金娘锈病生物库应对措施。

IF 1.6 4区 生物学
Emma L Dalziell, Bryn Funnekotter, Matthew D Barrett, Alyssa M Martino, Amanda Shade, Matthew Stray, David J Merritt
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引用次数: 0

摘要

桃金娘锈病是一种通过真菌 Austropuccinia psidii 感染引起的植物病害,2010 年首次在澳大利亚发现。该病害已在新南威尔士州、维多利亚州、昆士兰州、北部地区和塔斯马尼亚州蔓延。在这短短的时间内,桃金娘锈病对桃金娘科的许多本地物种造成了毁灭性的影响,其中包括几个目前濒临灭绝的热带雨林物种。2022 年,桃金娘锈病首次在澳大利亚最大的州--西澳大利亚州(WA)北部地区被发现。西澳大利亚州约有 2000 个桃金娘科类群(约占澳大利亚桃金娘科多样性的 60%),其中许多类群构成了多个生态系统植被的主要组成部分(如桉树、苍耳、白千层、Agonis、Verticordia 等)。模拟结果表明,与东海岸潮湿的温带雨林相比,西澳大利亚北部的环境条件更不利于桃金娘锈病的发生,但西澳大利亚温带、桃金娘属植物丰富的南海岸可能气候适宜。西澳大利亚桃金娘科物种丰富,具有高度的地方特有性,濒危物种比例高,而且关于桃金娘锈病易感性的可用信息很少,因此有必要采取先发制人的策略,保护濒危物种的种质资源。本文强调了异地种质保护在应对桃金娘锈病等生物安全威胁方面的作用。早期干预对于获得健康和基因多样化的种质资源至关重要,因此我们列出了一份西澳大利亚桃金娘科属和种的优先列表,为战略性、协调性和及时的异地保护行动提供信息,并通过案例研究说明了保护西澳大利亚桃金娘科植物种质资源所需的种子库、低温生物技术和组织培养等互补方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Framing a Biobanking Response to Myrtle Rust in Western Australia.

Myrtle rust is a plant disease caused through infection by the fungus Austropuccinia psidii and was first detected in Australia in 2010. The disease has spread through New South Wales, Victoria, Queensland, the Northern Territory, and Tasmania. In this short timeframe, myrtle rust has had a devastating impact on many native species in the family Myrtaceae, including several rainforest species that are now at risk of extinction. In 2022, myrtle rust was first detected in the northern part of Western Australia (WA)-the largest state in Australia. WA is home to ca. 2000 Myrtaceae taxa (ca. 60% of Australia's Myrtaceae diversity), many of which form the dominant component of the vegetation across several ecosystems (e.g., Eucalyptus, Corymbia, Melaleuca, Agonis, Verticordia etc.). While modelling suggests that the environmental conditions in WA's north are less conducive to myrtle rust in comparison to the wet, temperate rainforests of the east coast, WA's temperate, Myrtaceae-rich south coast may be climatically suitable. Coupled with the sheer abundance of Myrtaceae species in WA, their high degree of endemism, high proportion of threatened species, and little available information on their susceptibility to myrtle rust, a pre-emptive strategy to conserve germplasm of at-risk species is warranted. This paper highlights the role of ex situ germplasm conservation in responding to biosecurity threats such as myrtle rust. With early intervention critical to sourcing healthy and genetically diverse germplasm, we present a prioritized list of genera and species of Myrtaceae in WA to inform strategic, coordinated, and timely ex situ conservation actions, along with case studies to illustrate the complementary approaches of seed banking, cryobiotechnology, and tissue culture necessary to conserve germplasm of WA's myrtaceous flora.

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来源期刊
Biopreservation and Biobanking
Biopreservation and Biobanking Biochemistry, Genetics and Molecular Biology-General Biochemistry,Genetics and Molecular Biology
自引率
12.50%
发文量
114
期刊介绍: Biopreservation and Biobanking is the first journal to provide a unifying forum for the peer-reviewed communication of recent advances in the emerging and evolving field of biospecimen procurement, processing, preservation and banking, distribution, and use. The Journal publishes a range of original articles focusing on current challenges and problems in biopreservation, and advances in methods to address these issues related to the processing of macromolecules, cells, and tissues for research. In a new section dedicated to Emerging Markets and Technologies, the Journal highlights the emergence of new markets and technologies that are either adopting or disrupting the biobank framework as they imprint on society. The solutions presented here are anticipated to help drive innovation within the biobank community. Biopreservation and Biobanking also explores the ethical, legal, and societal considerations surrounding biobanking and biorepository operation. Ideas and practical solutions relevant to improved quality, efficiency, and sustainability of repositories, and relating to their management, operation and oversight are discussed as well.
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