RII Track-1: Socially Sustainable Solutions for Water, Carbon, and Infrastructure Resilience in Oklahoma
RII Track-1: Socially Sustainable Solutions for Water, Carbon, and Infrastructure Resilience in Oklahoma
批准号:
1946093
负责人:
Kevin Wagner
金额:
$2000.0万
依托单位国家:
美国
项目类别:
Cooperative Agreement
财政年份:
2020
资助国家:
美国
项目状态:
未结题
起止时间:
2020-07-01 至 2025-06-30
中文摘要
这个第1轨道项目将有助于设计和开发可接受的解决方案,以解决紧迫的社会问题。这个项目的工作假设是,复杂社会问题的社会可持续解决方案将在相关但不同的问题领域的交叉点找到,在那里,不同的利益相关者可以找到共识,因为一系列问题跨越了构成社会冲突的通常叙述。俄克拉荷马EPSCoR将采用一个社会科学框架,该框架大量结合了社会动力学理论,并由公共政策学习理论提供信息,在四个关键重点领域的交叉点投资科学:季节性到亚季节性天气模式的变化,可变和边际质量的水供应,陆地水和碳动态的变化,以及可持续的水和能源基础设施。社会科学框架将提供关键利益相关者、公众和技术重点领域团队之间的系统和迭代参与,以确定聚合的解决方案。该项目将由俄克拉荷马州立大学与其他五所俄克拉荷马州学术机构合作管理,其中包括两所少数民族服务机构:俄克拉荷马州大学、塔尔萨大学、俄克拉荷马州西南立大学、兰斯顿大学(历史上的黑人学院或大学(HBCU))和穆斯科吉(克里克)民族学院(部落学院)。其他项目合作伙伴包括地区大学和社区学院、以农业为重点的非营利组织诺布尔研究所和俄克拉何马博物馆网络。利用社会科学在两极分化的环境中产生解决方案具有更广泛影响的潜力,因为它解决了与俄克拉何马州公民相关的需求。由此产生的解决方案将有利于俄克拉何马州与该项目相关或无关的人的生活质量。此外,该项目将促进整个司法管辖区的STEM教育,并扩大未被充分代表的人口对STEM学科的参与。这个RII Track-1俄克拉荷马州EPSCoR项目将开发和测试社会可持续的、基于科学的解决方案,以解决土地利用、水可用性和基础设施交叉的邪恶(复杂)问题。统一的研究问题是,基于科学的评估,加上俄克拉何马州意见领袖和公民的参与,是否能产生社会可持续发展的解决方案。俄克拉何马州EPSCoR将通过关注重点领域解决的四个挑战,确定水利用、景观碳循环、能源和水基础设施的问题和潜在解决方案如何以复杂的方式相互联系:1)提高对导致季节性和次季节性事件的大气和陆地过程的知识,增加对预测技能的理解,从而能够创建前景预测;2)了解俄克拉荷马州的陆地碳和水动力学,通过使用地球系统科学方法在全州范围内量化水和碳动力学,确定增加碳吸收和储存的潜在选择,同时维持供水;3)开发新的工程技术和建模方案,以实现水的再利用和提高对水处理效率的理解;4)为相互依赖的基础设施系统建立一个综合弹性模型,该模型包括恶劣天气、极端天气、野火和诱发地震活动对网络的不确定性影响,以及网络对网络的相互依赖性。技术重点领域团队将参与一个系统的、迭代的科学研究过程,并从公民、意见领袖和科学家用来理解和评估潜在研究影响的社会叙述中获得更多方向。该项目还将开展教育、推广和扩大参与活动,包括:1)为K-12教师提供STEM课程和培训;2)非传统STEM教育工作者培训;3) K-12学生STEM教育,以及4)俄克拉荷马州公民科学网络的发展。这些活动将满足该州的STEM需求,并惠及数千名俄克拉荷马州的学员、教师和公民。该奖项反映了美国国家科学基金会的法定使命,并通过使用基金会的知识价值和更广泛的影响审查标准进行评估,被认为值得支持。
英文摘要
This RII Track-1 project will enable the design and development of acceptable solutions to pressing societal problems. The working hypothesis of this project is that socially sustainable solutions to complex societal problems will be found at the intersections of related but distinct problem areas, where diverse stakeholders can find agreement because the array of issues cuts across the usual narratives that frame social conflict. Oklahoma EPSCoR will employ a social science framework that heavily incorporates social dynamics theory and is informed by theories of public policy learning to invest in science at the intersections of four key focus areas: changing seasonal to sub-seasonal weather patterns, variable and marginal quality water supplies, shifting terrestrial water and carbon dynamics, and sustainable water and energy infrastructure. A social science framework will provide for systematic and iterative engagement between key stakeholders, the public, and technical focus area teams to identify convergent solutions. This project will be administered by Oklahoma State University in collaboration with five other Oklahoma academic institutions, which include two Minority Serving Institutions: University of Oklahoma, University of Tulsa, Southwestern Oklahoma State University, Langston University (a Historically Black College or University (HBCU)), and the College of the Muscogee (Creek) Nation (a Tribal College). Additional project partners include regional universities and community colleges, the Noble Research Institute, an agriculture-focused non-profit organization, and the Oklahoma Museum Network. The use of social science to generate solutions within a polarized environment has high potential for broader impacts, because it addresses needs that are relevant to Oklahoma’s citizens. The resulting solutions developed will benefit the quality of life for Oklahomans associated and unassociated with the project. In addition, the project will promote STEM education across the jurisdiction and broaden the participation of underrepresented populations in STEM disciplines. This RII Track-1 Oklahoma EPSCoR project will develop and test socially sustainable, science-based solutions for wicked (complex) problems at the intersection of land use, water availability, and infrastructure. The unifying research question is whether science-based assessment, coupled with the engagement of Oklahoma opinion leaders and citizens, can result in development of socially sustainable solutions. Oklahoma EPSCoR will identify how both problems and potential solutions for water use, landscape-carbon cycle, and energy and water infrastructure are interlinked in complex ways by focusing on four challenges addressed by the focus areas: 1) improving the knowledge of atmospheric and land processes that lead to seasonal to sub-seasonal events and increasing understanding of predictive skillsets to enable the creation of outlook forecasts; 2) understanding terrestrial carbon and water dynamics across Oklahoma to identify potential options for increasing carbon uptake and storage while sustaining water supply by using an Earth Systems Science approach to quantify water and carbon dynamics at a statewide scale; 3) developing new engineering technologies and modeling schemes for the reuse and improved understanding of water treatment efficiencies; and 4) developing an aggregated resilience model for interdependent infrastructure systems that includes the effects of uncertainties in severe weather, weather extremes, wildfires, and induced seismicity on networks, and network-to-network interdependencies. Technical focus area teams will engage in a systemic, iterative process of conducting science with added direction from social narratives that citizens, opinion leaders, and scientists use to comprehend and evaluate potential research impacts. The project will also conduct education, outreach and broadening participation activities that include: 1) STEM curriculum and training for K-12 teachers; 2) non-traditional STEM educator training; 3) K-12 student STEM education, and 4) growing of Oklahoma’s citizen science network. These activities will address the state’s STEM needs and reach thousands of Oklahoma trainees, teachers and citizens.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.
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DOI:
10.1038/s44221-022-00008-x
发表时间:
2023-01
期刊:
Nature Water
影响因子:
--
作者:
[M. Schipanski;M. Sanderson;L. E. Méndez-Barrientos;Amy Kremen;P. Gowda;D. Porter;K. Wagner;Charles West;C. Rice;Mark A. Marsalis;B. Guerrero;Erin M. K. Haacker;J. Dobrowolski;C. Ray;B. Auvermann]
通讯作者:
M. Schipanski;M. Sanderson;L. E. Méndez-Barrientos;Amy Kremen;P. Gowda;D. Porter;K. Wagner;Charles West;C. Rice;Mark A. Marsalis;B. Guerrero;Erin M. K. Haacker;J. Dobrowolski;C. Ray;B. Auvermann
Decomposing the Critical Components of Flash Drought Using the Standardized Evaporative Stress Ratio
使用标准化蒸发应力比分解骤旱的关键成分
DOI:
10.2139/ssrn.4136023
发表时间:
2022
期刊:
SSRN Electronic Journal
影响因子:
--
作者:
[Edris, Stuart G., Basara, Jeffrey B., Christian, Jordan I., Hunt, Eric D., Otkin, Jason A., Salesky, Scott T., Illston, Bradley G.]
通讯作者:
Illston, Bradley G.
DOI:
10.3390/rs16010046
发表时间:
2023-12
期刊:
Remote. Sens.
影响因子:
--
作者:
[Jorge Celis;Xiangming Xiao;Paul M. White;Osvaldo M. R. Cabral;Helber C. Freitas]
通讯作者:
Jorge Celis;Xiangming Xiao;Paul M. White;Osvaldo M. R. Cabral;Helber C. Freitas
DOI:
10.1016/j.envc.2023.100750
发表时间:
2023-07
期刊:
Environmental Challenges
影响因子:
--
作者:
[R. Koushki;Sumit Sharma;J. Warren;M. Foltz]
通讯作者:
R. Koushki;Sumit Sharma;J. Warren;M. Foltz
Forage quantity and protein concentration changes across a forest-savanna gradient with management implications for white-tailed deer
森林-稀树草原梯度范围内草料数量和蛋白质浓度的变化对白尾鹿的管理影响
DOI:
10.1016/j.foreco.2023.120987
发表时间:
2023
期刊:
Forest Ecology and Management
影响因子:
3.7
作者:
[McKinney, Caleb M., Masters, Ronald E., Adhikari, Arjun, Mishra, Bijesh, Joshi, Omkar, Zou, Chris B., Will, Rodney E.]
通讯作者:
Will, Rodney E.
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