
Measuring Eco-innovation
Objective
Some important challenges for eco-innovation measurement to be investigated are
1. The ongoing nature (changing characteristics) of an eco-innovation
2. The novelty and importance of an innovation
3. Possibilities for combining different innovation measures (input indicators and output indicators, direct and indirect measures)
4. The aggregation of eco-innovation into meaningful categories
5. The links between different types of innovation, for instance the link between organisational innovation and technological innovation
6. The competitiveness of eco-innovation of different type
We will propose possible indicators for measuring relevant aspects of eco-innovation, taking into account data availability issues, and de fine future research needed to address these methodological challenges in developing eco-innovation indicators and set up guidance for the most feasible route for implementation of eco-innovation indicators on the time scale envisaged.
The project will be done by eco-innovation experts with people from statistical bureaus from two communities: the environmental accounting community and the innovation community, including Eurostat and the European Environment Agency (EEA).
Funding Scheme
STREP - Specific Targeted Research Project



Coordinator
Participants (4)
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DANMARKS TEKNISKE UNIVERSITET
Denmark
FUNDACION LEIA CENTRO DE DESARROLLO TECNOLOGICO
Spain
IMPERIAL COLLEGE OF SCIENCE, TECHNOLOGY AND MEDICINE
United Kingdom
ZENTRUM FUER EUROPAEISCHE WIRTSCHAFTSFORSCHUNG GMBH
Germany
Project information
Funded under:
FP6-POLICIES
-
Overall budget:
€ 223 590
-
EU contribution
€ 199 983
Developing indicators for eco-innovation
CLIMATE CHANGE AND ENVIRONMENT

The so-called green economy has been hailed as one of the exits out of the global financial crisis. Aside from financial aspects, green technology and services also benefit the environment and are a key element of corporate social responsibility. So how is Europe doing in terms of eco-innovation? The participants in the 'Measuring Eco-innovation' (MEI) project, which was funded by the EU, set out to answer this question. First, they came up with a comprehensive definition of eco-innovation that incorporates concepts such as environmental impact and product lifecycles. Next, a number of different approaches to measuring eco-innovation were investigated. For example, questionnaires were developed to survey companies active in this field. Analysis of patents also proved to be an excellent and free source of information, though unfortunately not suitable for all types of eco-innovation. The MEI team found that creativity, while a more abstract concept, could be effectively assessed using input from journals and product databases. By the same token, several indicators, ranging from environment to operating conditions, could be used to define important advances in eco-innovation. In order to define a point of reference, trials were carried out to test the applicability of different ideas for a benchmark indicator. The results indicate that a combination of measures delivers better results than any single measure in isolation. Looking to the future, the MEI participants identified gaps in current knowledge, including obstacles such as the lack of statistical data specific to eco-innovation. This information was used to define a roadmap for future research in this field with the aim of ensuring Europe's status as an eco-innovation leader.
Project information
Funded under:
FP6-POLICIES
-
Overall budget:
€ 223 590
-
EU contribution
€ 199 983
Discover other articles in the same domain of application
Final Report Summary - MEI (Measuring Eco-innovation)
The MEI project focused on the measurement aspects of eco-innovation, which was defined as the development, assimilation and exploitation of a product, process, service or method which was novel to the company developing or adopting it and which resulted, throughout its life cycle, in the reduction of environmental risks, pollution and impacts on resources in comparison to alternatives. A typology of eco-innovation was proposed to assist policy and statistical data collection. Moreover, companies were categorised with respect to the applied eco-innovation approach.
The usefulness of three implemented measurement methods was assessed as part of MEI. Firstly, the survey analysis method was investigated and the potential to include eco-innovation information in the applied techniques was evaluated. Suggestions on questionnaires were therefore formulated and optimal sets of questions were indentified, both for the determinants and the novelties’ control variables.
Moreover, the patent analysis was assessed as a tool for assessing proposals. Patents formed an important indicator of novelties and had the advantages of providing detailed technological information and being publicly available for rather long time series. In addition, they were directly linked to technical invention. Therefore, seven attributes of cutting-edge activities that could be evaluated through patent data were identified. However, the patents’ value was fluctuating, since their majority was never widely used, while available data only captured a restricted amount of the developed solutions.
A four-step method for patent analysis, which overcame the abovementioned hurdles, was developed as part of MEI. In was noted that patents’ investigation was useful to identify product innovations and ‘end of pipe’ technologies but did not suit other types of proposals.
Moreover, creativity could be measured using digital and documentary sources, through the monitoring of trade journals and product information databases. Since only a few datasets included environmental parameters, a database for eco-innovation output was created by sampling sections of interest from journals and including information provided by producers. The strengths and weaknesses of the implemented approach were subsequently identified.
Research on advances concluded that they occurred within a wide context that shaped processes, output and economic and environmental results. Therefore, the collection of data regarding these contextual factors was necessary. MEI examined six different approaches to investigate the systemic and dynamic novelty aspects in order to identify representative metrics. The analysis resulted in useful indicators which were categorised with respect to their relevance to the firm, the operating conditions, the developed linkages, the radical and incremental innovation and the overall performance.
In addition, possibilities for creating a benchmark indicator for eco-innovation were analysed, resulting in the development of a proposal which was pilot tested. The indicator was based on companies’ information which was obtained through survey. Data that were used in economic models for the determination of the effects of environmental and energy policies, as well as the expected future needs, were also investigated.
The potential effects of eco-innovation on the competitiveness of nations and sectors were additionally evaluated. It was noted that combinations of different measures and methods provided better estimates than the utilisation of single techniques. Two essential difficulties impacting the accuracy of the predictions were the lack of specific trade statistics and the necessity to undertake case study analyses to define existing conditions. Finally, the MEI team formulated suggestions for future research, based on the undertaken project activities and their outcomes.
Project information
Funded under:
FP6-POLICIES
-
Overall budget:
€ 223 590
-
EU contribution
€ 199 983
Deliverables
Deliverables not available
Publications
Publications not available
Project information
Funded under:
FP6-POLICIES
-
Overall budget:
€ 223 590
-
EU contribution
€ 199 983
Project information
Funded under:
FP6-POLICIES
-
Overall budget:
€ 223 590
-
EU contribution
€ 199 983