Western Australian Biodiversity Science Institute, WA Trustees Building, Level 2, 133 St Georges Terrace, Perth, WA 6000, Australia; Department of Biodiversity, Conservation and Attractions, 17 Dick Perry Avenue, Kensington, WA 6151, Australia; School of Biological Sciences, The University of Western Australia, 35 Stirling Highway, Crawley, WA 6009, Australia.
School of Biological Sciences, The University of Western Australia, 35 Stirling Highway, Crawley, WA 6009, Australia; Department of Terrestrial Zoology, Western Australian Museum, 49 Kew Street, Welshpool, Western Australia 6106, Australia.
Sci Total Environ. 2019 Sep 20;684:381-389. doi: 10.1016/j.scitotenv.2019.05.316. Epub 2019 May 21.
Subterranean environments contain a diverse and unique obligate fauna: either aquatic living in the groundwater or terrestrial living in voids above the water table. In the arid region of the western part of the Australian continent, a particularly rich subterranean fauna coincides with a concentration of natural resource extraction operations. Since the inclusion of subterranean fauna in assessments of environmental impact in the mid-1990s, taxonomic research in Australia on this group of mainly invertebrates has grown exponentially. However, remaining knowledge gaps continue to frustrate both environmental regulators and development proponents due to high uncertainty in the decision-making process. In early 2017, the Western Australian Biodiversity Science Institute was tasked with leading the development of a research program to improve on the current state of knowledge of subterranean fauna. To balance the diverse environmental, economic and social needs of a range of stakeholders, transdisciplinary principles were applied to program development. A clear consensus on five broad focus areas to progress include: (1) data consolidation; (2) resilience to disturbance; (3) survey and sampling protocols; (4) abiotic and biotic habitat requirements; and (5) species delineation. In the context of these focus areas; we describe the research program development, reviewing the status of knowledge within each focus area, and the research initiatives to close the gaps in knowledge. We argue that, by adopting a transdisciplinary approach, the likelihood of success of the research program, as measured by the effective translation and adoption of research findings, will be maximized. This review is timely given the ever-increasing demand on groundwater systems for water extraction worldwide. A holistic understanding of the influence of anthropogenic activities on these ecosystems, and the functional role of organisms within them, will help to ensure that their health is not compromised.
要么是在地下水中生活的水生动物,要么是在地下水位以上的空洞中生活的陆生动物。在澳大利亚大陆西部干旱地区,丰富的地下动物群与自然资源开采作业的集中地相吻合。自 20 世纪 90 年代中期将地下动物群纳入环境影响评估以来,澳大利亚对这组主要是无脊椎动物的分类学研究呈指数级增长。然而,由于决策过程中的高度不确定性,地下动物群的相关知识仍然存在空白,这让环境监管机构和开发支持者都感到沮丧。2017 年初,西澳大利亚生物多样性科学研究所受委托领导制定一个研究计划,以改善目前对地下动物群的认识状况。为了平衡一系列利益相关者的多样化的环境、经济和社会需求,跨学科原则被应用于项目的开发。各方对五个广泛的重点领域达成了明确共识,包括:(1)数据整合;(2)抗干扰能力;(3)调查和抽样协议;(4)非生物和生物栖息地要求;以及(5)物种划分。在这些重点领域的背景下,我们描述了研究计划的制定过程,回顾了每个重点领域的知识现状,以及缩小知识差距的研究举措。我们认为,通过采用跨学科方法,研究计划的成功可能性(以研究结果的有效转化和采用来衡量)将会最大化。考虑到全球范围内对地下水系统进行水提取的需求不断增加,这篇综述恰逢其时。全面了解人为活动对这些生态系统的影响,以及生物体在其中的功能作用,将有助于确保它们的健康不受损害。