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ICT applications in the research into environmental sustainability: a user preferences approach

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Abstract

Whether information and communication technology (ICT) constitutes a threat or a cure to environment’s deterioration is controversially discussed. Empirical evidence on the impacts of ICT is rare, so that generalizable lessons can hardly be drawn. This study provides empirical results on the role of ICT in research for environmental sustainability, but instead of ascertaining the impact of ICT on environmental protection, we conduct an analysis of the use of ICT in sustainability research. We assess the preferences of experts in different thematic sustainability fields for applying ICT tools, and we investigate ways to improve the application of these tools in order to augment their returns with respect to environmental protection research. This analysis is based on a set of surveys that were administered to international experts to evaluate the importance of ICT in environmental sustainability research and the research demands in key environmental sectors, such as climate change, natural resources, energy and biodiversity. The methodological framework is built on the analysis of users’ preferences for future developments in ICT tools using stated preferences techniques. Overall results suggest that ICT tools need to be developed in specific contexts, taking into account users’ needs and expectations. Our analysis shows that the use of ICT in environmental research is of great importance in the scientific community, but it can also play a crucial role in the policy context.

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Notes

  1. See Arnold et al. (2005) for a description of a concerted action aiming at bridging the gap between research and EU Water Framework Directive implementation among others by using ICT tools.

  2. Von Hauff and Wilderer (2008) hint to the positive impact of the internet on reducing transaction cost, for example.

  3. Of course, we implicitly also touch third order aspects in our analysis, since life style changes are regularly in the researchers’ range of vision.

  4. Røpke (2001: 419) stresses the role of information technology as “a core technology constituting a strong technological push and influencing a large number of products. Both new processes and completely new functions are introduced, and a major cluster of related technologies is developed.”

  5. However, according to Fuchs (2008: 306), on the one hand ICTs can foster a higher publication rate and speed in science and on the other hand may—due to the rising publication speed—have a negative influence on quality standards.

  6. The study of Labelle et al. (2008) presents a review of trends in the use of ICT tools and methods in order analyse the impact of ICT on the environment and how it can help to cope with climate change (Geneva Plan of Action, 2003—World Summit on the Information Society Action Line C7—http://www.itu.int/wsis/docs/geneva/official/poa.html#c7-20).

  7. The ICT tools included in the list have been identified in a previous stage of the ICT-ENSURE project. For more information see the webpage http://www.ict-ensure.eu.

  8. Requirements for future developments of ICT were proposed and discussed during focus groups meetings.

  9. Adaptation of the questionnaire to each context and survey administration were performed by the following persons of reference contacted in each sector: David Patterson (Maple-Ferryman, Belfast, Great Britain) for the biodiversiyt sector; Ulrich Strasser (Institute of Geography and Regional Science, University of Graz, Austria) for the climate change sector; Anna Spiteri (Integrated Resources Management IRM Company Ltd, Malta) for the natural resources sector; Luigi Crema and Chiara Ghidini (Fondazione Bruno Kessler, Povo Trento, Italy) for the energy sector.

  10. The choice of the variable to include in the model was decided and discussed during the focus groups meetings.

  11. Detailed results are reported in the project’s technical reports (Patterson 2010; Spiteri 2010; Strasser 2010; Crema and Ghidini 2010).

  12. In a stratified sample the categories chosen are proportionate to the categories in the whole population. This option was unfeasible in the present case study considering the large scientific community that should be represented.

  13. The total percent is not 100 % as only the answers on “high importance” have been reported, excluding the alternatives of low and medium importance.

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Acknowledgments

The study has been developed in the course of the ICT-ENSURE project (EUROPEAN ICT-ENVIRONMENTAL SUSTAINABILITY RESEARCH, www.ict-ensure.eu). ICT-ENSURE is financed under the grant agreement number 224017 of the European Commission’s seventh framework programme, Theme 3, Information and Communication Technologies. The authors wish to thank the whole research team and specifically David Patterson (Maple-Ferryman, Belfast, Great Britain), Ulrich Strasser (Institute of Geography and Regional Science, University of Graz, Austria), Anna Spiteri (Integrated Resources Management IRM Company Ltd., Malta), Luigi Crema and Chiara Ghidini (Fondazione Bruno Kessler, Povo Trento, Italy).

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Correspondence to Aline Chiabai.

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Chiabai, A., Rübbelke, D. & Maurer, L. ICT applications in the research into environmental sustainability: a user preferences approach. Environ Dev Sustain 15, 81–100 (2013). https://doi.org/10.1007/s10668-012-9376-2

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