Keywords
energy demand, sufficiency policy, behavioural change, energy descent, socio-ecological transformation, policy database
This article is included in the Energy gateway.
This article is included in the Energy Systems Modelling collection.
energy demand, sufficiency policy, behavioural change, energy descent, socio-ecological transformation, policy database
We received valueable comments by two reviewers on the F1000.Research platform. We clarify that we currently have a bias on European and German due to the underlying literature. We currently work on the inclusion of impact chains and quantification of sufficiency policies, in order to provide guidance on how to include sufficiency in demand models. The reviews both suggested to include some process to crowd-source new policies and to improve our interface to interact with the community. We will consider this in a new version of the database.
See the authors' detailed response to the review by Gibran Vita
See the authors' detailed response to the review by Mirko Schäfer and Celia Burghardt
Sufficiency is a potentially low-cost, fast and socially just mean of global greenhouse gas (GHG) mitigation. It is linked to multiple benefits for human well-being.1 The understanding of sufficiency varies across disciplines and discursive spheres; in relation to energy, sufficiency is the strategy that aims at achieving absolute reductions in the use of energy-based services.2 Energy sufficiency, renewable energies and energy efficiency are all methods to reduce emissions associated with energy use. Renewables substitute fossil fuels, efficiency means finding ways to reduce losses by improving the input/output relation, and sufficiency equals avoiding/shifting energy services altogether.
Just as renewable energy and efficiency technologies, energy sufficiency is enabled and promoted by policy action. It is a genuine field of policy making, a case for regulatory frameworks and infrastructures, much beyond micro-level individual behaviour changes.1,3–6 We differentiate three sufficiency types to categorise policy instruments by whether they are aimed at a clear avoid strategy, i.e. a reduction of services; at shift, i.e. substituting energy intensive practices by less energy-intensive ones; or in general supporting reductions and substitutions.[1] It is important to note that energy use is not an end in itself, but a mean to satisfy human needs (mobility, security, connectivity), which is why the literature speaks of energy services.
The need for a sufficiency policy database has been formulated by various researchers and ministerial representatives, e.g. Toulouse et al.7 and Zell-Ziegler and Förster.8 Sufficiency is underrepresented in climate change mitigation policy and energy and climate scenarios so far (e.g. Samadi et al.9). A database on energy sufficiency could serve as a starting point for the collection of policy instruments, their assessment in a structured format, as precondition for further research and policy consulting and to complement the discussion on mitigation policy options.
Such database should provide information on good practices, implementation examples and insights on emission and energy reduction potentials. An openly accessible database can collect findings, ideas and examples and make them better accessible to policy makers than’hidden’ in e.g. a project report.
When consulting existing climate end energy policy databases, for example International Energy Agency’s (IEA) Policy Database10 and European Environment Agency’s (EEA) Database on Greenhouse Gas Policies and Measures in Europe,11 it is striking that demand-side solutions to climate change and especially sufficiency options are underrepresented. Many sufficiency-minded bottom-up initiatives are included in the database on Transformative Social Innovations12 hosted by Dutch Research Institute For Transition (DRIFT), but this database does not focus on policy instruments. The NewClimate Institute’s Climate Policy Database13 and the Mesures d’Utilisation Rationnelle de l’Energie (MURE) database on energy efficiency measures14 include sufficiency and/or the reduction of energy service demand in their search masks. However, the scope of these databases is different to our purpose: the Database of NewClimate aims at tracking climate action worldwide and thus focuses on mitigation plans and decarbonisation roadmaps rather than on specific policy instruments. The MURE database explicitly considers sufficiency policies and indicators since spring 2021,15 including detailed descriptions and quantification, but only for policies that are already implemented, which limits the openness for new proposals. Another database is the Policy Ideas Database for Sustainable Prosperity from the Institute for Future-Fit Economies (ZOE).16 The ZOE-database is not a classical database, but a narrative and graphical visualisation, however, it is a valuable source for visionary cross-sectoral policies.
This section briefly describes the structure of the database, starting with sources for entries. To improve accessibility, and to allow for filtering, clustering and potential further analyses, we propose a number of structuring categorisations including information on sectors, goals, target indicators, policy instruments and sufficiency types. Moreover, we outline our internal review and harmonisation process and the technical setup of the database.
Policy instruments are mainly extracted from existing literature and databases using the classifying parameters outlined below. Two key sources are first an extensive and detailed report describing policy measures for a “German Zero” emissions scenario until 203517 and second a list of policy measures extracted from all European National Energy and Climate Plans (NECPs) published by Zell-Ziegler et al.2 and condensed to merge instruments described by various NECPs. This is complemented by databases such as the Sustainable Prosperity Database16 and by further literature18–30 as well as exchange with experts (advisory board meeting of the research group EnSu in September 2020). For a full list of references, see the respective tab in the database (please see underlying data).31
To allow for the analysis of policy instruments, we structured the database along several key categories:
Sector includes information on the covered sector: agri-food, buildings, industry/production, transport, LULUCF (land use, land-use change and forestry), energy and cross-sectoral (for overarching policies targeting various sectors).
Goal/policy strategy describes what the respective policy aims at, while
Measure/action explains the more concrete changes envisaged to achieve the policy goals and the mitigation target.
Indicator lists quantifiable units to be used to estimate the effect of the policy instrument/policy.
Sufficiency type categorises instruments according to the strategies avoid, shift or generally supporting.
Policy instrument lists the specific policy instrument from the respective source that is intended to lead to change and the description gives more details on the specifications of the instrument.
Instrument type categorises the policy instrument types according to UNFCCC categories,32 adding one for "not specified", where actions are listed in sources but respective instruments are not specified.
Time horizon impact/implementation rough estimate of time until possible implementation and time between implementation and impact.
References are included with a link and page reference to facilitate retrieval of original sources.
The latest version of the database is available under https://energysufficiency.de/policy-database/.
As the database will be further developed, additional categories may be included such as quantification (parameter settings as an input for system modelling), impact chains (as a guidance for sector-specific modelling), extension beyond Germany/Europe, push/pull measures,33 governance levels,34,35 policy interactions, and whether they constitute a sufficiency promotion or reduction of barriers as well as metadata.
In order to increase consistency and interrater reliability of the database and to avoid duplicate entries, the data collection and cleaning process was organised with multiple internal review loops:
• Assignation of main sector responsible to each sector (out of the four first authors)
• Initial policy collection by main sector responsible
• Assignation of reviewer to each sector (out of the four first authors), review of all entries including: clarity of entries, correct coding, plausible entries (esp. goal/policy strategy, measure/action, indicator, instrument type)
• Bilateral coder meetings for clearance of divergences where necessary
• Loops of coder-meetings to sort out inconsistencies and establish a common understanding and coding procedure
• Where multiple policy instruments were listed, prioritisation on main instrument or splitting of policy in respective separate instruments (rows)
• Harmonisation of goals and indicators within and across sectors
The database needs to meet the following requirements in order to be of highest utility and used most efficiently:
• Online availability with open access
• Clear design and easy navigation through the dataset
• Possibility to filter and search for keywords
• Possibility to insert additional information on policies (description as floating text)
• Possibility to include attachments (e.g. sufficiency policy impact chains, planned to be developed)
• Possibility to download the data
Furthermore, we plan to include interfaces for feedback and crowd-sourcing of new policies.
In order to find a software solution that may deliver on these aspects we exchanged with the hosts of comparable policy databases and with persons from our networks and a person from the EnSu project’s advisory board[2].
The database version published with this article contains 281 policies from seven sectors (Figure 1 shows freight transport separately). One third of these are from the transport sector, followed by 62 policies in the building sector and 48 cross-sectoral measures that address more than one sector. Some provide indirect connections with sufficiency measures such as reductions of subsidies for fossil fuels. The sources we analysed contained only very few sufficiency measures for the LULUCF (4) and energy (6) sector. The sufficiency measures in the energy sector concentrate on the overall policy goal ‘reduce energy consumption’ with such instruments as e.g. ‘subsidise energy savings’.28
We include modal shift measures in the transport sector, labeled as sufficiency type shifting from high-energy to lower-energy modes (shift). Of the 95 transport entries, 56% aim at mode shift from cars to public transport and active modes (walking, cycling) (see Figure 2). In the transport sector, shift policies dominate, indicating that this is a key policy strategy for transport. Somewhat less common is the reduction of necessary trips and thus traffic (avoid), e. g. through support of teleworking or city planning to reduce distances between points of interest. Shift policies also dominate in the industry and agri-food domain.
In the building sector, sufficiency instruments of the ‘avoid’ type dominate in our database so far, aiming at an efficient use of living space and development of the existing building stock, focusing on quality of living and by that reduce overall living space and required land sealing. In the industry/production sector, avoid measures target at enhancing product lifetimes by increasing reparability and durability.
The database includes existing and proposed policy instruments of all types as categorised by UNFCCC.32 Most of the policy instruments in the database are of regulatory nature (108), economic (45, e.g. taxation) or fiscal (66, e.g. infrastructural or subsidies) (see Figure 3). The high share of regulatory instruments is in contrast to sufficiency policy instruments that are implemented or planned by EU member states, as listed in NECPs2 where regulatory instruments are underrepresented. The diversity of instrument types shows that sufficiency policies are not only information campaigns leaving the responsibility to the individual, but a comprehensive mix of instruments. Sufficiency policy can thus be regarded as a policy field comparable to energy efficiency or renewable energies.
Figure 4 combines the information on sectors and instrument types. This highlights that the sufficiency policies proposed in the various sectors diverge in focus. In the building sector, fiscal (subsidy) instruments and regulations prevail while for the transport sector, the focus is more on fiscal/infrastructure policies, financial/tax incentives and regulation. A possible explanation for the prevalance of fiscal instruments are limits/biases of the underlying literature, as economic models and scenarios are driven by price assumptions. For the industry/production sector, mostly regulatory instruments are included while cross-sectoral policy instruments are mostly financial incentives through taxation and subsidies as well as regulation. For the other sectors, fewer instruments of all types are included.
Note: Bubble sizes indicate the number of instruments.
As a step towards model inclusion of sufficiency policies, we searched for specific target indicators that may eventually be included into models or, vice versa, that models may potentially give as outputs to quantify energy sufficiency. The database includes 79 unique indicators such as e.g. ‘durability of products’, ‘car ownership rate’, ‘kg of exported meat’ and ‘ living space/person’ or ‘ unused living space’. For a complete list, see underlying data. These are indicators identified from the policy descriptions and may function as linking variables to sector and energy models and climate scenarios.36
By summarizing the overall goals all identified sufficiency policy instruments, we identify 45 different policy goals (See underlying data).31 While most are quite sector-specific and concrete such as reduce motorized individual transport or efficient use of living space, some goals, especially the ones of cross-sectoral policy instruments, aim at more general goals of human well-being e.g. equal society,alternative welfare indicators and that would involve more fundamental changes of organizing principles of societies e.g. re-distribute and reduce paid work-time or promote commons. This shows that demand-side options are not only a means to mitigate climate change, but can also involve a more general strategy to reach socio-ecological goals and quality of life.
Potentially, much like with energy efficiency and renewable energy policy, sufficiency policies are most effective and unfold all advantages, if not reduced to single measures but integrated into a consistent policy framework. We consider it still helpful to depict each policy instrument in detail in such a database on the one and provide the heterogeneity of sufficiency policy on the other side.
The database published along with this article is a first version and proof of concept. So far, we have a strong focus on European and German sources. We do not claim completeness and since it is a dynamic field, additional policy instruments will be added. We will also invite external persons to propose additional policies and plan to team up with other research stakeholders in the energy sufficiency field at German and EU level to investigate options for a successful continuation of the database including potential future (co-)hosts and possibilities for maintenance. Regarding its format, we plan to implement the sufficiency policy database as an online database.
Further planned developments of the database are the inclusion of quantitative effects (energy demand & GHG-reduction potentials) of the policies. To this end, policy impact chains need to be investigated and the policy representation in models be expanded to include them in ex-ante assessments and scenario studies.37 Another possible addition is a prioritization regarding maturity, replicability and impact.38 To make more transparent which policies are actually reducing barriers for sufficiency, we will add the categorisation of barrier-reduction and sufficiency-supporting. Furthermore, we will add good practice and implementation examples to the entries of the database.
In the field of barriers, more research is required to identify current political barriers which might prevent the implementation of sufficiency. Due to the partly fundamental character of the changes some policy instruments of sufficiency represent, further research on economic effects, macroeconomic dynamics and culture is required which is beyond the scope of the database itself but is fundamental for a successful implementation of sufficiency policy.
Our energy sufficiency policy database of currently 281 policy instruments can serve as a basis to develop policy recommendations in the so far underrepresented field of sufficiency policy. Moreover, it provides a starting point for further research on sufficiency and climate change mitigation policies, especially for modelling and scenario studies. The identification of indicators is a first step to include sufficiency into modelling and be able to assess the effect of the different policy measures.
As the variety of different instrument types, goals and policy levels shows, sufficiency is a diverse policy field with multiple options of implementation and effect. The database encompasses specific instruments but also fundamental structural changes of societal organisation principles. Our interdisciplinary approach is helpful to cover the heterogeneity of sufficiency. The description on concrete information on sufficiency as policy, with goals, instruments and indicators as an interface to modelling can help to overcome existing barriers on sufficiency policy implementation. Making it more tangible can support its path to becoming a key strategy for energy policy.
Underlying data Zenodo: Sufficiency Policy Database DOI31: This project contains the following underlying data: Sufficiency Policy Database
Source data https://energysufficiency.de/policy-database/ (latest version of the sufficiency policy database)
Data are available under the terms of the Creative Commons Attribution 4.0 International (CC BY 4.0).
Benjamin Best: Conceptualization, Funding Acquisition, Investigation, Methodology, Project Administration, Writing – Original Draft Preparation, Writing – Review & Editing; Johannes Thema: Conceptualization, Formal Analysis, Investigation, Methodology, Visualization, Writing – Original Draft Preparation, Writing – Review & Editing; Carina Zell-Ziegler: Conceptualization, Formal Analysis, Investigation, Methodology, Visualization, Writing – Original Draft Preparation, Writing – Review & Editing; Frauke Wiese: Conceptualization, Funding Acquisition, Investigation, Methodology, Project Administration, Writing – Original Draft Preparation, Writing – Review & Editing; Jonathan Barth: Resources; Stephan Breidenbach: Resources; Leonardo Nascimento: Resources, Writing – Review & Editing; Henry Wilke: Resources
The authors would like to thank the members of their advisory boards for policy ideas and feedback. Great thanks to Diana Süsser and Bendix Vogel for technical advice. Thanks to the organizers and the participants of the session “Reaching our Targets - Making Europe fit for 55” of the EMP-E 2021 Conference.
1 For more details and examples see Zell-Ziegler et al. 2
2 EnSu - Research Group on energy sufficiency, https://energysufficiency.de/.
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Is the work clearly and accurately presented and does it cite the current literature?
Yes
Is the study design appropriate and is the work technically sound?
Yes
Are sufficient details of methods and analysis provided to allow replication by others?
Yes
If applicable, is the statistical analysis and its interpretation appropriate?
Not applicable
Are all the source data underlying the results available to ensure full reproducibility?
Yes
Are the conclusions drawn adequately supported by the results?
Yes
Competing Interests: These reviewers are part of a larger working group ("Integrated Energy Systems" of the project Energy Systems of the Future). One of the authors (Frauke Wiese) is also member of this working group.
Reviewer Expertise: Energy system analysis and modelling
Is the work clearly and accurately presented and does it cite the current literature?
Yes
Is the study design appropriate and is the work technically sound?
Yes
Are sufficient details of methods and analysis provided to allow replication by others?
Partly
If applicable, is the statistical analysis and its interpretation appropriate?
Not applicable
Are all the source data underlying the results available to ensure full reproducibility?
Yes
Are the conclusions drawn adequately supported by the results?
Yes
Competing Interests: No competing interests were disclosed.
Reviewer Expertise: Industrial Ecology
Alongside their report, reviewers assign a status to the article:
Invited Reviewers | ||
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