In the near future the appearance and spatial organization of urban and rural landscapes will be strongly influenced by the generation of renewable energy. One of the critical tasks will be the re-integration of these sustainable energy landscapes into the existing environment-which people value and want to preserve-in a socially fair, environmenta
Autorentext
Sven Stremke, Ph.D., is an assistant professor of landscape architecture at Wageningen University in the Netherlands. His research commenced with a particular focus on the mitigation of climate change (sustainable energy landscapes) and has been expanded to include adaptation to climate change (climate-robust landscapes). His research and design has been published in scientific journals, and he has presented his work around the world. Each year, Dr. Stremke and his colleagues conduct commissioned projects on sustainable energy landscapes. He is a member of the scientific advisory board to the New Development of Methods and Tools for Estimation of Sustainability research project in Denmark. Recently, he initiated the launch of an online platform that provides information on projects, publications, teaching, and other activities with regard to energy landscapes (www.NRGlab.net).
Andy van den Dobbelsteen
Inhalt
Preamble. Sustainable Energy Landscapes: An Introduction. Reading the Changing Energy Landscape. Strong Feelings: Emotional Landscape of Wind Turbines. Methods. Energy Potential Mapping and Heat Mapping: Prerequisite for Energy-Conscious Planning and Design. Five-Step Approach to the Design of Sustainable Energy Landscapes. Multicriteria Decision Analysis for the Planning and Design of Sustainable Energy Landscapes. Energy Landscape Visualization: Scientific Quality and Social Responsibility of a Powerful Tool. Developing a Planning Theory for Wicked Problems: Swarm Planning. Planning Sustainable Energy Landscapes: From Collaborative Approaches to Individuals' Active Planning. Integrated Optimization of Spatial Structures and Energy Systems. Employing Exergy and Carbon Models to Determine the Sustainability of Alternative Energy Landscapes. Case studies. Energy-Conscious Design Practice in Asia: Smart City Chengdu and the Taiwan Strait Smart Region. Conduit Urbanism: Rethinking Infrastructural Ecologies in the Great Lakes Megaregion, North America. Bi-Productive Urban Landscapes: Urban Resilience through a Redevelopment of Postindustrial Space in the United Kingdom. Spatial Modeling for Community Renewable Energy Planning: Case Studies in British Columbia, Canada. Initiating and Analyzing Renewable Energy Transitions in Germany: The District, Village, and Farm Scale. Energy-Conscious Planning Practice in Austria: Strategic Planning for Energy-Optimized Urban Structures. Assessment of Sustainability for the Danish Island of Samso by Application of a Work Energy (Exergy) Balance: A Preliminary Assessment. Carbon Emission Intensity and Areal Empower Density: Combining Two Systemic Indicators to Inform the Design and Planning of Sustainable Energy Landscapes. Education. Designing Sustainable Energy Islands: Applying the Five-Step Approach in a Graduate Stu