A field station's recipe for impactful science

IF 10 1区 环境科学与生态学 Q1 ECOLOGY
Aaron S David, Sahas Barve, Elizabeth H Boughton, Joshua H Daskin, Hilary M Swain
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Here, we identify three key ingredients of a recipe for achieving impact: (1) <i>synergistic science</i>, (2) <i>knowledge of place</i>, and (3) <i>bridging to partners</i>. Although grounded in our experiences at Archbold Biological Station, a nonprofit field station in south-central Florida, and in our collective knowledge of similar stations, we believe these ingredients are broadly applicable across scientific institutions.</p><p><i>Synergistic science</i> refers to teams of researchers working together toward an institution's mission. Simply put, complex environmental challenges require diverse teams to address them holistically. For example, Archbold's fire management plan is based on decades of our own science across taxa, providing a comprehensive framework for balancing the fire needs of multiple organisms, and, to date, resulting in &gt;350 prescribed burns of an endangered scrub ecosystem. Synergistic science may be interdisciplinary or emerge from participation in formal research networks (eg USDA's Long-Term Agroecosystem Research [LTAR] network). For instance, testing strategies for sustainable agroecosystems required synthesizing data collected by 18 researchers from 53 long-term co-located studies of biodiversity, water quality, soils, and greenhouse gases at Archbold’s Buck Island Ranch (Nat Commun 2023).</p><p><i>Knowledge of place</i> refers to a deep understanding of local or regional ecosystems, biota, and processes, and to being a trusted information source among key stakeholders in governmental, academic, nonprofit, and for-profit sectors (Univ. of Chicago Press 2010). Solutions to large-scale environmental challenges arise from local actions based on knowledge of place. Developing knowledge of place is often not straightforward and may require lengthy engagement to build relevant expertise, resources, datasets, and partnerships. 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Here in Florida, the Florida Wildlife Corridor aims to conserve 17.7 million acres of connected lands, and mobilizes a coalition of land trusts, nonprofits, landowners, filmmakers, and government agencies, in addition to researchers (Conserv Sci Pract 2024).</p><p><i>Impact</i> for an ecologist may take on various forms, but often lies in specific outcomes such as policy, land conservation, or improved population trajectories for at-risk species. Importantly, quantifiable metrics allow institutions to track outcomes and prioritize impactful activities. For example, strategic planning using a Theory of Change model (Eval Program Plann 2009) can help an organization identify desired conservation outcomes (eg species persistence), as well as the metrics to assess (eg number of translocations) and the research to arrive at those outcomes.</p><p>At Archbold, we have found that the combination of these ingredients is a recipe for increased impact. 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引用次数: 0

Abstract

As society navigates unprecedented global change, we need science-backed solutions to confront compounding ecological crises. While we ecologists often intend to do impactful science that addresses these crises, too often we are guilty of “hoping”, rather than “planning”, for impact. Within ecologically minded institutions, having planned impacts increases the likelihood of success and starts with a well-defined mission, which states the organization's purpose and guides its activities. Mission-oriented science can influence agency policy, shape sustainable land-use planning, guide management best practices, train future scientists, and more. However, the challenge is to build from mission-oriented science to maximize impact. Here, we identify three key ingredients of a recipe for achieving impact: (1) synergistic science, (2) knowledge of place, and (3) bridging to partners. Although grounded in our experiences at Archbold Biological Station, a nonprofit field station in south-central Florida, and in our collective knowledge of similar stations, we believe these ingredients are broadly applicable across scientific institutions.

Synergistic science refers to teams of researchers working together toward an institution's mission. Simply put, complex environmental challenges require diverse teams to address them holistically. For example, Archbold's fire management plan is based on decades of our own science across taxa, providing a comprehensive framework for balancing the fire needs of multiple organisms, and, to date, resulting in >350 prescribed burns of an endangered scrub ecosystem. Synergistic science may be interdisciplinary or emerge from participation in formal research networks (eg USDA's Long-Term Agroecosystem Research [LTAR] network). For instance, testing strategies for sustainable agroecosystems required synthesizing data collected by 18 researchers from 53 long-term co-located studies of biodiversity, water quality, soils, and greenhouse gases at Archbold’s Buck Island Ranch (Nat Commun 2023).

Knowledge of place refers to a deep understanding of local or regional ecosystems, biota, and processes, and to being a trusted information source among key stakeholders in governmental, academic, nonprofit, and for-profit sectors (Univ. of Chicago Press 2010). Solutions to large-scale environmental challenges arise from local actions based on knowledge of place. Developing knowledge of place is often not straightforward and may require lengthy engagement to build relevant expertise, resources, datasets, and partnerships. Ultimately, knowledge of place allows organizations a seat at the table in decision making; in our case, such knowledge allows staff to engage closely with county planners on policies supporting prescribed fire, establishing conservation areas, and avoiding development sprawl.

Bridging to partners refers to how the organization works with other, mission-aligned institutions and stakeholders to make science actionable. This ingredient may range from true co-production of research with stakeholders, to working with targeted end users to communicate findings and recommendations. For instance, The Nature Conservancy and Kansas State University have a shared mission at Konza Prairie Biological Station dedicated to long-term ecological research, education, and prairie conservation that has contributed to bison restoration, fire management, and grazing practices across the Flint Hills region. Here in Florida, the Florida Wildlife Corridor aims to conserve 17.7 million acres of connected lands, and mobilizes a coalition of land trusts, nonprofits, landowners, filmmakers, and government agencies, in addition to researchers (Conserv Sci Pract 2024).

Impact for an ecologist may take on various forms, but often lies in specific outcomes such as policy, land conservation, or improved population trajectories for at-risk species. Importantly, quantifiable metrics allow institutions to track outcomes and prioritize impactful activities. For example, strategic planning using a Theory of Change model (Eval Program Plann 2009) can help an organization identify desired conservation outcomes (eg species persistence), as well as the metrics to assess (eg number of translocations) and the research to arrive at those outcomes.

At Archbold, we have found that the combination of these ingredients is a recipe for increased impact. Our mission coupled with strategic conservation pillars guides most research toward both basic science and deliberate conservation outcomes. Since its founding in 1941, the Station's synergistic science focused on the ecology of the many imperiled endemic species of the Lake Wales Ridge. In the late 1980s, our work expanded regionally into the surrounding Headwaters of the Everglades with new science on agricultural and military lands and associated grassland habitats. Our broadened knowledge of place expanded Archbold's impact, from local work on land management with various landowners, to regional issues such as landscape connectivity and water quality. Participating in science networks further expanded Archbold's impact to national (eg LTAR) and global (eg Nutrient Network) extents by scaling up our place-based research. Our recent leadership in the Florida Wildlife Corridor campaign created statewide influence through legislative and ballot-driven funding for land conservation (Conserv Sci Pract 2024). We urge scientists working at all types and sizes of institutions to embrace an impact-oriented approach that leverages synergistic science, knowledge of place, and partnerships to address increasing ecological challenges.

一个野外考察站对科学的影响
随着社会面临前所未有的全球变化,我们需要科学支持的解决方案来应对日益复杂的生态危机。虽然我们生态学家经常打算做一些有影响力的科学来解决这些危机,但我们常常因为“希望”而不是“计划”产生影响而感到内疚。在有生态意识的机构中,有计划的影响增加了成功的可能性,并从一个明确的使命开始,它陈述了组织的目的并指导其活动。以任务为导向的科学可以影响机构政策,塑造可持续的土地使用规划,指导管理最佳实践,培养未来的科学家等等。然而,挑战在于从以任务为导向的科学中建立,以最大限度地发挥影响。在这里,我们确定了实现影响的配方的三个关键要素:(1)协同科学,(2)地方知识,(3)与合作伙伴的桥梁。尽管基于我们在阿奇博尔德生物站(Archbold Biological Station)的经验,以及我们对类似站点的集体知识,我们相信这些要素广泛适用于所有科学机构。阿奇博尔德生物站是佛罗里达州中南部的一个非营利性野外站点。协同科学指的是为了一个机构的使命而共同努力的研究团队。简单地说,复杂的环境挑战需要不同的团队从整体上解决。例如,阿奇博尔德的火灾管理计划是基于我们几十年来对不同分类群的科学研究,为平衡多种生物的火灾需求提供了一个全面的框架,到目前为止,已经对濒临灭绝的灌木丛生态系统进行了350次规定的焚烧。协同科学可能是跨学科的,也可能来自于参与正式的研究网络(例如美国农业部的长期农业生态系统研究[LTAR]网络)。例如,可持续农业生态系统的测试策略需要综合18名研究人员从阿奇博尔德巴克岛牧场的53项长期共同研究中收集的数据,这些研究涉及生物多样性、水质、土壤和温室气体(Nat Commun 2023)。地方知识是指对当地或区域生态系统、生物群和过程的深刻理解,并成为政府、学术、非营利和营利部门关键利益相关者之间可信的信息来源(芝加哥大学出版社2010年)。大规模环境挑战的解决方案来自于基于地方知识的地方行动。开发地方知识通常不是直截了当的,可能需要长期参与,以建立相关的专业知识、资源、数据集和伙伴关系。最终,对地点的了解使组织能够在决策制定中占有一席之地;在我们的案例中,这些知识使员工能够与县规划人员密切合作,制定支持规定火灾的政策,建立保护区,避免发展蔓延。衔接合作伙伴是指组织如何与其他使命一致的机构和利益攸关方合作,使科学具有可操作性。这一要素的范围可以从与利益相关者真正的合作研究,到与目标最终用户合作,交流发现和建议。例如,大自然保护协会和堪萨斯州立大学在康扎草原生物站有一个共同的使命,致力于长期的生态研究、教育和草原保护,这有助于弗林特山地区的野牛恢复、火灾管理和放牧实践。在佛罗里达州,佛罗里达野生动物走廊旨在保护1770万英亩的相连土地,并动员土地信托、非营利组织、土地所有者、电影制作人和政府机构以及研究人员组成的联盟(《保护科学实践2024》)。对生态学家的影响可以采取各种形式,但通常是具体的结果,如政策、土地保护或改善濒危物种的种群轨迹。重要的是,可量化的指标使机构能够跟踪结果并优先考虑有影响力的活动。例如,使用变化理论模型(2009年评估计划计划)的战略规划可以帮助组织确定期望的保护结果(如物种持久性),以及评估指标(如易位数量)和达到这些结果的研究。在Archbold,我们发现这些因素的结合是提高影响力的秘诀。我们的使命与战略性保护支柱相结合,引导大多数研究朝着基础科学和深思熟虑的保护结果发展。自1941年成立以来,该站的协同科学研究重点是威尔士湖岭许多濒危特有物种的生态学。在20世纪80年代后期,我们的工作扩展到周边的大沼泽地的源头,并对农业和军事用地以及相关的草地栖息地进行了新的研究。 我们扩大了对地方的了解,扩大了Archbold的影响力,从与不同土地所有者一起进行土地管理的当地工作,到景观连通性和水质等区域问题。通过扩大我们基于地点的研究,参与科学网络进一步扩大了Archbold对国家(如LTAR)和全球(如营养网络)的影响。我们最近在佛罗里达野生动物走廊运动中的领导作用,通过立法和投票驱动的土地保护资金,在全州范围内产生了影响(《保护科学实践2024》)。我们敦促在各种类型和规模的机构工作的科学家采用以影响为导向的方法,利用协同科学、地点知识和伙伴关系来应对日益严峻的生态挑战。
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来源期刊
Frontiers in Ecology and the Environment
Frontiers in Ecology and the Environment 环境科学-环境科学
CiteScore
18.30
自引率
1.00%
发文量
128
审稿时长
9-18 weeks
期刊介绍: Frontiers in Ecology and the Environment is a publication by the Ecological Society of America that focuses on the significance of ecology and environmental science in various aspects of research and problem-solving. The journal covers topics such as biodiversity conservation, ecosystem preservation, natural resource management, public policy, and other related areas. The publication features a range of content, including peer-reviewed articles, editorials, commentaries, letters, and occasional special issues and topical series. It releases ten issues per year, excluding January and July. ESA members receive both print and electronic copies of the journal, while institutional subscriptions are also available. Frontiers in Ecology and the Environment is highly regarded in the field, as indicated by its ranking in the 2021 Journal Citation Reports by Clarivate Analytics. The journal is ranked 4th out of 174 in ecology journals and 11th out of 279 in environmental sciences journals. Its impact factor for 2021 is reported as 13.789, which further demonstrates its influence and importance in the scientific community.
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