Frans van de Ven
Delft University of Technology
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Featured researches published by Frans van de Ven.
Environmental Impact Assessment Review | 2000
Michiel A. Rijsberman; Frans van de Ven
Abstract The implications of sustainability on a construction level are quite well known, for example, with respect to the use of resources and emissions. On a higher level, sustainable development is not univocal. There are various sustainable solutions to a problem. Sustainable development is a complex problem, and in urban infrastructure a specific solution usually is the result of a planning process in which people from various backgrounds are involved. Different people have different perceptions of urban infrastructure and its management. A system of four basic approaches is presented, distinguishing so-called eco, ratio, socio, and carrying capacity approaches. This system, based on an extensive literature review, can facilitate the process leading to a workable consensus on sustainable development. The approach and planning process has to meet a certain set of requirements. Requirements are given, partly based on experience with planning for urban water infrastructure dealing with “natural” water flows in three cities.
Water Resources Management | 2012
Cornelis J. van Leeuwen; Jos Frijns; Annemarie P. van Wezel; Frans van de Ven
Climate change, population growth and increased consumption, coupled with urbanization, are all placing increased pressure on water management. This global challenge can often best be addressed at the local level, e.g. in cities by optimizing the role of civil society. Although there are approaches for assessing the sustainability of countries and cities, there is no dedicated framework for the assessment of the sustainability of urban water management. We have therefore compiled a comprehensive list of indicators (the city blueprint) for this. The city blueprint is proposed as a first step towards gaining a better understanding and addressing the challenges of integrated urban water management (IUWM). City blueprints will enable the IUWM of cities to be compared, and stimulate the exchange of success stories (good practices) between cities to address the enormous IUWM challenges which lie ahead. The city blueprint provides a quick scan and baseline assessment. It comprises elements from a variety of methodologies, such as water footprint, urban metabolism and ecosystem services. The indicators have been subdivided into eight broad categories, i.e. (1) water security following the water footprint approach developed by Hoekstra and Chapagain (2007), (2) water quality, which includes surface water and groundwater, (3) drinking water, (4) sanitation, (5) infrastructure, (6) climate robustness, (7) biodiversity and attractiveness and (8) governance. Experience using city blueprints for the cities of Rotterdam, Maastricht and Venlo (in the Netherlands) have been included as practical examples. It was concluded that simplicity (ease of calculation and data availability), transparency and ease of communication makes the blueprint a valuable tool for policy makers, decision makers and resource managers as a first step in the process of understanding, envisioning, developing and implementing measures to transform the water management of cities. The best results are obtained when all the stakeholders are involved and connected right from the start.
Science of The Total Environment | 2015
Martin Bloemendal; Theo Olsthoorn; Frans van de Ven
A heat pump combined with Aquifer Thermal Energy Storage (ATES) is proven technology to economically and sustainably provide space heating and cooling. The two most important preconditions for the applicability of ATES are favorable climatic conditions and the availability of a suitable aquifer. This paper shows how these two preconditions can be combined to identify where in the world ATES potential is present, or will become present as a consequence of climate change. Countries and regions are identified where regulation and stimulation measures may increase application of ATES technologies and thus help reduce CO2-emissions. Two types of data determine ATES suitability, and their combination with a 3rd identifies potential hot-spots in the world: 1) geo-hydrological conditions, 2) current and projected climate classification and 3) urbanization. Our method combines the data into an ATES-suitability score as explained in this paper. On the one hand the results confirm the suitability for ATES where it is already applied and on the other they identify places where the technology is or will become suitable. About 15% of urban population lived in areas with high potential for ATES at the start of the 21st century, but this figure will decrease to about 5% during the 21st century as a consequence of expected climate change. Around 50% of urban population currently lives in areas of medium ATES suitability, a percentage that will remain constant. Demand for ATES is likely to exceed available subsurface space in a significant part of the urban areas.
Journal of Environmental Management | 2018
Sadie McEvoy; Frans van de Ven; Michiel W. Blind; Jill H. Slinger
In the face of a changing climate, many cities are engaged in adaptation planning and are using participatory workshops to involve stakeholders in these initiatives. Different tools are being used to structure the process and content of participatory planning workshops, but it is unclear what effect the tools have on the workshops and their results. We evaluated three different tools (Group Model Building, the Adaptation Support Tool, and the Stress Test Guideline) and a tool-free approach in repeated simulated workshops, to observe and compare (1) the way workshops played out, and (2) the direct outcomes that were achieved. Tools appear to influence both aspects. Specifically, we measured differences in the learning effects in groups, in the development of shared understanding within groups, in the types of plans that are developed by groups, and in the nature of participation during the workshops. Further research is needed to translate these results into practice, but this is a first step in advancing knowledge about the influence of tools in participatory planning activities.
Natural Hazards | 2009
Rutger de Graaf; Nick van de Giesen; Frans van de Ven
Water | 2014
Floris Boogaard; Terry Lucke; Nick van de Giesen; Frans van de Ven
Environmental Science & Policy | 2016
Frans van de Ven; R.P.H. Snep; Stijn Koole; Reinder Brolsma; Rutger van der Brugge; Joop Spijker; Toine Vergroesen
Building and Environment | 2017
Anna Solcerova; Frans van de Ven; Mengyu Wang; Michiel Rijsdijk; Nick van de Giesen
Challenges | 2014
Floris Boogaard; Frans van de Ven; Jeroen Langeveld; Nick van de Giesen
Water Science and Technology | 1984
Frans van de Ven