ZoekresultatenZoekresultaten
Volg ons op
Volg ons op
Types
0Instelling
26Bestandstype
9Taal
5Publicatiejaar
12Thema's
14Producttype
14Publicaties met bestand / URL
2Projectstatus
3There is a clear demand for a collaborative knowledge-sharing on climate adaptation and mitigation. The aim of most climate adaptation platforms is (inter)national knowledge exchange and raising awareness about climate adaptation in urban areas and promote solutions such as Nature-based solutions (NBS) and floating infrastructure. However their multiple benefits are often unknown to the wider public. During seminars (February 2020) in Indonesia climate adaptation measures where mapped and the relevance of the climate adaption platforms such as ClimateScan was evaluated by the means of workshops and a survey. The platform ClimateScan holds now over 5000 locations in 5 main categories of climate adaptation (water, nature, agriculture, energy and people). The conclusions from the workshops in Semarang and Surabaya show high relevance scores for NBS: permeable pavement and swales; for infiltration of stormwater to groundwater; for mitigation of high temperatures with heat stress measures; and flood barriers to mitigate flooding. There were low scores for floating urbanization because this is not a culturally accepted practice in contradiction to other parts of the world. Indonesian floating infrastructure as a floating library, restaurant and airport terminal where mapped during workshops bringing the total of international floating structure locations to 150. The workshops have raised awareness among participants and contributed to capacity building by empowering the participants to map and review climate adaptation measures. A high majority see the value of climate adaptation platforms and will use it in the future.
MULTIFILE
Cities are becoming increasingly vulnerable for climate change and there is an urgent need
to become more resilient. This research involves the development of the City climate scan
Rotterdam (September 2017) methodology to measure, map, scan and assess different
parameters that together give insight in the vulnerability of urban areas and neighborhoods.
The research at recent City climate scan / Sketch your city in April 2018 used storytelling and
sketching1 as main method to connect stakeholders, motivate action, evoke recognition in a
jointly formulated goal, such as taking climate action. The city climate scan also involved the
development of a set of measurement tools that can be applied in different urban
neighborhoods in a low-cost low-tech approach with teams of stakeholders and
practitioners. The city climate scan method was tested in different cities around the globe
(Rotterdam, Manila and Cebu) in groups of young professionals and stakeholders in rapid
urban appraisals.
DOCUMENT
There is a clear demand for a collaborative knowledge-sharing by online climate adaptation platforms that contribute to (inter)national knowledge exchange and raising awareness about climate change. Climate adaptation platforms (CAPs) can contain decision-support tools to facilitate the process of decision-making, and may include capacity building, networking, dissemination to assist planning and implementation of proven adaptation concepts such as Nature-based solutions (NBS) to mitigate floodings, drought, and heat stress. From 2014 over 6000 global climate adaptation projects have been mapped on an open source platform ClimateScan using citizen science. This chapter describes the potential of this climate adaption platform by illustrated case studies with mapped climate adaptation measures in Africa, Asia, and Europe. The case studies illustrate engagement and tangible results related to online platforms such as: the period of relevance of ClimateScan, inclusiveness and engagement of users in different stages and continents. Workshops in Indonesia illustrate the need for validation of needs from potential users before implementing CAPs. Analyzing projects in Africa showcase best management practices in water conservation and water demand management that are of interest in many other regions in the world facing drought. In Europe detailed analysis of over 3000 climate adaptation measures in relation to neighborhood typologies is inspiring urban planners and stormwater managers to design, plan, and implement climate resilient measures with more confidence. These three global examples illustrate that mapping, promoting, and sharing knowledge about implemented proven concepts is raising awareness, contribute to community-building, and accelerate climate action around the world.
DOCUMENT
Cities are becoming increasingly vulnerable to climate change and there is an urgent need to become more resilient. This research involves the development of the City Climate Scan methodology to measure, map, scan and assess different parameters that provide insight into the vulnerability of urban areas and neighborhoods. The research involved the development of a set of measurement tools that can be applied in different urban neighborhoods in a low-cost low-tech approach with teams of stakeholders and practitioners. The City Climate Scan method was tested in different cities around the globe with groups of young professionals and stakeholders in rapid urban appraisals.
For the Rotterdam City Climate Scan (September 2017), the following challenges were selected: risk of flooding, heat stress, water quality (micro-pollutants and plastic waste) and air quality. The Rotterdam climate scan is evaluated with their triple helix partners (public, private and academic partners). The conclusion is that the City Climate Scan approach helps policy makers and practitioners to gather valuable data for decision makers in a rapid appraisal at the neighborhood and city level. The results of the City Climate Scan method
provides insights, creates awareness and brings together stakeholders. The most valuable deliverable is the concrete and tangible results. The participatory approach brings residents and practitioners together and provides insight into local problems, while at the same time the method facilitates the collection of valuable data about the robustness of neighborhoods. As a result of this positive evaluation, the City Climate Scan will be up scaled to a number of cities in Europe and Asia in the upcoming months.
DOCUMENT
Public squares are vital components of urban environments, serving as spaces for recreation, social interaction, play, and exercise. However, in densely populated, low-income neighborhoods with limited green spaces, these squares often lack adaptive capacity, limiting their functionality during extreme weather events such as heavy rain or heatwaves. Currently, there are no tools available to assess or quantify the climate adaptation levels of public squares, making it challenging to evaluate their preparedness for climate change. This study introduces a novel, hands-on method to quantify the climate adaptation of public squares. Initially, the most significant climate factors were identified, and for each factor, a quantifiable characteristic was determined. These characteristics were then translated into measurable parameters. Required information for each parameter, such as types of ground cover and green infrastructure present, was established. Field visits were conducted to assess the existing elements in each square.
DOCUMENT
Climate adaptation requires innovative approaches to address collaborative knowledge exchange and multidisciplinary problem solving. For over a decade, ClimateScan has provided an open-source platform to map urban resilience and existing climate adaptation solutions implemented all over the world. Apart from providing data, this tool also supports a citizen science approach, contributing to active stakeholder engagement. This study aims to develop and apply calculation methods and visualisation techniques to the database in order to generate comprehensive insights into climate adaptation patterns and their contribution to urban resilience in the Netherlands. Initial indications of analysed data show that storage capacities of integrated stormwater infrastructure, such as bioswales and wetlands, have increased significantly over the last 20 years resulting in close to a minimum of 1,6 million m3 storage volume. This trend is evident in both large urban areas as well as small villages, thereby supporting sustainable climate adaptation strategies. Through the application of this open-source tool, it is possible to engage a wide range of stakeholders to contribute to developing the database for a specific area.
MULTIFILE
The purpose of this paper is to discuss the insights gained by testing in a design studio a particular research by design strategy, focusing on the generation of innovative climate adaptation solutions. The strategy is based on the Design Thinking Process and has been applied in the climate adaptation design studio, which took place in 2022 at a Master of Architecture degree program in the Netherlands. The case study area was the Zernike university campus in Groningen, the Netherlands, which is situated in the verge between the city and the surrounding rural landscape, facing the urgent climate change challenges of the wider region, mainly floodings due to increased frequency of rainfalls and sea level rise. Furthermore, the area faces particular challenges, such as the increasing demand for serving additional needs, beyond the current educational and business related functions, such as (student) housing. Three indicative design research projects were selected to illustrate the tested research by design strategy, while systematic input has been collected from the participating students regarding the impact of this strategy on their design process. The results reveal that this strategy facilitates the iterative research by design process and hence offers a systematic approach to convert the threats of climate change into opportunities by unravelling the potentials of the study area, resulting in place-based, innovative and adaptive solutions.
DOCUMENT
We summarize what we assess as the past year's most important findings within climate change research: limits to adaptation, vulnerability hotspots, new threats coming from the climate–health nexus, climate (im)mobility and security, sustainable practices for land use and finance, losses and damages, inclusive societal climate decisions and ways to overcome structural barriers to accelerate mitigation and limit global warming to below 2°C.
MULTIFILE
As it becomes clear that climate change is not easily within the boundaries of the 1990's, society needs to be prepared and needs to anticipate future changes due to the uncertain changes in climate. So far, extensive research has been carried out on several issues including the coastal defence or shifting ecozones. However, the role spatial design and planning can play in adapting to climate change has not yet been focussed on.This book illuminates the way adaptation to climate change is tackled in water management, ecology, coastal defence, the urban environment and energy. The question posed is how each sector can anticipate climate change by creating spatial designs and plans. The main message of this book is that spatial design and planning are a very useful tool in adapting to climate change. It offers an integral view on the issue, it is capable in dealing with uncertainties and it opens the way to creative and anticipative solutions. Dealing with adaptation to climate change requires a shift in mindset; from a technical rational way of thinking towards an integral proactive one. A new era in spatial design and planning looms on the horizon. © Springer Science+Business Media B.V. 2009.
DOCUMENT
Sustainable Open Solutions Climate Waterfront is an interdisciplinary project that aims to explore waterfronts in Europe facing extreme situations under the threat of climate change, eg. heat, too much absent rain and sea level rise with all its consequences. The central goal is to exchange adaptive strategies for sustainable solutions for infrastructure and urban planning. The multidisciplinary perspective in cooperation with all possible partners, stakeholders and citizens, leads to a better understanding of the challenges and adaptation strategies.
The participating parties are six coastal cities: Lisbon, Rome, Thessaloniki, Gdansk, Stockholm and the Amsterdam region. All these cities, except ‘Amsterdam’, are represented by a university. The Amsterdam area is represented by a multidisciplinary, educated but not necessarily academically employed delegation.
DOCUMENT
