Advancing Offshore Wind Power Sitting through Multi-criteria Assessment Integration

通过多标准评估整合推进海上风电选址

基本信息

项目摘要

1235671 (Kelly).This research has two major tasks. The first is to advance offshore wind siting methods by creating a new multi-criteria assessment framework that integrates life cycle assessment (LCA), geographic information systems (GIS), viewshed modeling, aquatic ecology, and economics to analyze the consequences of design, policy, and engineering decisions of offshore wind farm siting. By accomplishing this task, offshore wind siting assessment can integrate the many competing siting objectives within a cohesive evaluation environment, and a general methodology will be developed for site evaluation. The second task is to apply this multi-criteria methodology to the Great Lakes region to explore how offshore wind farm siting locations will impact the electric sector, environmental quality (through emissions reductions and aquatic life impacts), and local viewsheds. The completion of this task will inform the development of policy and technology with respect to offshore wind turbines, and will provide tools for conducting these analyses. The research effort will develop multi-criteria analyses that use GIS, LCA, and optimization methods to analyze and visualize the economic, environmental, and social impacts of siting offshore wind turbines. This model will incorporate data from numerous sources, much of which is geographically unique (topography, bathymetry, wind resource, population, demographics, food web), but the methods will be applicable to any location. The integration and optimization of the economic, environmental, and social impacts is a unique contribution to research in offshore wind. It allows the simultaneous evaluation of these potentially disparate objectives, and creates a means of identifying the tradeoffs that exist between them. One globally identified challenge facing humanity is the reduction of greenhouse gasses from the energy sector. Offshore wind represents a tremendous resource, but the planning and deployment of offshore wind turbines has been met with much social resistance. A more thorough and holistic approach to wind site analysis may reduce such resistance and thereby streamline offshore wind siting. This research will create a methodology for evaluating and supporting offshore wind farm siting and development that better accounts for economic, social, and environmental impacts. The multi-criteria assessment framework will be applied to a siting project in Michigan, but the methodology will be applicable to other offshore wind developments, and will enhance the understanding of tradeoffs associated with offshore wind farms to key stakeholders (e.g., local communities, developers, government agencies, investors). A teaching module on integrated assessment of offshore wind siting will be developed and tested in two Master's courses for the UM School of Natural Resources and Environment, and then refined for widespread dissemination through the UM Center for Sustainable Systems website. A professionally developed podcast or video short will be produced, posted to social media sites for broad educational impacts from K to grey, and provided to the Great Lakes Wind Collaborative for dissemination. The educational impact of this project includes both graduate and undergraduate students through independent research and course module integration. A PhD student will work on advanced GIS research for offshore wind siting which will include electricity grid and environmental modeling. This project will also leverage the UM Undergraduate Research Opportunity Program to engage undergraduates from numerous diverse backgrounds and cultures. The research team will use the research findings to update and create Wikipedia pages on topics such as ?offshore wind power?, ?electricity from wind?, and other relevant topics. This research will be accomplished by an interdisciplinary team that leverages expertise from several different and complementary communities including mechanical engineering and optimization, LCA, environmental economics, aquatic ecology and GIS.
1235671(Kelly).这项研究有两个主要任务。 首先是通过创建一个新的多标准评估框架来推进海上风电选址方法,该框架集成了生命周期评估(LCA),地理信息系统(GIS),视域建模,水生生态学和经济学,以分析海上风电场选址的设计,政策和工程决策的后果。通过完成这一任务,海上风电选址评估可以将许多相互竞争的选址目标整合到一个有凝聚力的评估环境中,并将为现场评估开发一种通用方法。第二项任务是将这种多标准方法应用于五大湖地区,以探索海上风电场选址将如何影响电力部门、环境质量(通过减排和水生生物影响)和当地视野。这项任务的完成将为海上风力涡轮机的政策和技术发展提供信息,并将为进行这些分析提供工具。 研究工作将开发多标准分析,使用GIS,LCA和优化方法来分析和可视化海上风力涡轮机选址的经济,环境和社会影响。这一模型将纳入来自许多来源的数据,其中大部分在地理上是独特的(地形、水深、风力资源、人口、人口统计、食物网),但方法将适用于任何地点。经济、环境和社会影响的整合和优化是对海上风电研究的独特贡献。它允许同时评估这些可能不同的目标,并创建一种识别它们之间存在的权衡的方法。人类面临的一个全球公认的挑战是减少能源部门的温室气体。海上风电是一种巨大的资源,但海上风力涡轮机的规划和部署遇到了很多社会阻力。一个更彻底和全面的方法来风场分析可以减少这种阻力,从而简化海上风场选址。这项研究将创建一种方法来评估和支持海上风电场选址和开发,更好地考虑经济,社会和环境影响。多标准评估框架将应用于密歇根州的选址项目,但该方法将适用于其他海上风电开发,并将提高关键利益相关者(例如,当地社区、开发商、政府机构、投资者)。 海上风电选址综合评估的教学模块将在自然资源与环境的UM学校的两个硕士课程中开发和测试,然后通过UM中心可持续系统网站进行广泛传播。将制作一个专业开发的播客或视频短片,张贴在社交媒体网站上,以产生从K到灰色的广泛教育影响,并提供给五大湖风合作组织进行传播。该项目的教育影响包括研究生和本科生通过独立研究和课程模块整合。一名博士生将从事海上风电选址的高级GIS研究,其中包括电网和环境建模。该项目还将利用UM本科生研究机会计划,吸引来自众多不同背景和文化的本科生。研究小组将使用研究结果来更新和创建维基百科页面的主题,如?海上风力发电?风力发电及其他相关议题。这项研究将由一个跨学科的团队完成,该团队利用来自几个不同和互补社区的专业知识,包括机械工程和优化,LCA,环境经济学,水生生态学和GIS。

项目成果

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Gregory Keoleian其他文献

Scaling up reusable container systems through city-wide centralized collection and washing
通过全市集中收集和清洗来扩大可重复使用的容器系统规模
  • DOI:
    10.1016/j.resconrec.2025.108154
  • 发表时间:
    2025-04-01
  • 期刊:
  • 影响因子:
    10.900
  • 作者:
    Christian Hitt;Gregory Keoleian;Rahim Rasool
  • 通讯作者:
    Rahim Rasool

Gregory Keoleian的其他文献

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{{ truncateString('Gregory Keoleian', 18)}}的其他基金

BE: MUSES: Sustainable Concrete Infrastructure Materials and Systems: Developing an Integrated Life Cycle Design Framework
BE:MUSES:可持续混凝土基础设施材料和系统:开发集成生命周期设计框架
  • 批准号:
    0329416
  • 财政年份:
    2003
  • 资助金额:
    $ 29.99万
  • 项目类别:
    Standard Grant
MUSE: Sustainable Infrastucture Materials and Systems: Integration of Microstructure Tailoring and Life Cycle Analysis of Engineered Cementitious Composites
MUSE:可持续基础设施材料和系统:工程水泥复合材料微观结构定制和生命周期分析的集成
  • 批准号:
    0223971
  • 财政年份:
    2002
  • 资助金额:
    $ 29.99万
  • 项目类别:
    Standard Grant
Life Cycle Optimization of Vehicle Replacement (TSE99-H)
车辆更换的生命周期优化 (TSE99-H)
  • 批准号:
    9985625
  • 财政年份:
    2000
  • 资助金额:
    $ 29.99万
  • 项目类别:
    Continuing Grant
LT: Life Cycle Design of Building Integrated Photovoltaic Systems
LT:建筑一体化光伏系统的生命周期设计
  • 批准号:
    9727268
  • 财政年份:
    1997
  • 资助金额:
    $ 29.99万
  • 项目类别:
    Standard Grant

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浮动海上风电基础设施对鱼类和海洋哺乳动物的分布和行为的影响:IFLOW
  • 批准号:
    2744014
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    2026
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Foundations for offshore wind turbines in Australian carbonate seabed soils
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