Mobilizing citizens for a low and clean energy future

Mobilizing citizens for a low and clean energy future

Available online at www.sciencedirect.com Mobilizing citizens for a low and clean energy future Anne-Maree Dowd and Elizabeth Hobman There is growing...

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Available online at www.sciencedirect.com

Mobilizing citizens for a low and clean energy future Anne-Maree Dowd and Elizabeth Hobman There is growing consensus worldwide that dramatic change is required to reduce greenhouse gas (GHG) emissions in order to mitigate further adverse effects on the environment. Alongside industry and government efforts, individuals also need to play an active role in choosing and implementing mitigation solutions in order to achieve a low and clean energy future. There are several possible avenues, such as reducing energy demand, developing economic and market mechanisms, implementing technologies that significantly reduce emissions from current energy supply sources, and the development of renewable energy technologies. Citizens can play a crucial role in reducing demand and influencing the implementation of new commercial scale energy technologies. This paper evaluates the current literature to identify how citizens can be mobilized in regards to behaviour change and acceptance of energy technologies. Addresses Commonwealth Scientific and Industrial Research Organisation (CSIRO), PO Box 883, Kenmore 4069, QLD, Australia Corresponding author: Dowd, Anne-Maree ([email protected])

Current Opinion in Environmental Sustainability 2013, 5:191–196 This review comes from a themed issue on Energy systems Edited by Suzana Kahn Ribeiro, Joyashree Roy, Diana Urge-Vorsatz, and Maria J Figueroa For a complete overview see the Issue and the Editorial Received 3 February 2012; Accepted 23 April 2012 Available online 11th May 2013 1877-3435/$ – see front matter, # 2013 Elsevier B.V. All rights reserved. http://dx.doi.org/10.1016/j.cosust.2013.04.005

Together with the effectiveness to address climate change, impacts on economic growth, international trade, legal and regulatory requirements and investments in technology also need to be accounted for when choosing between, or using combinations, of options [2]. Other researchers [3] also argue for more socially oriented impacts are considered, such as health, social equity and wellbeing, when selecting solutions. Therefore, to address a global scale, complex problem like climate change, there needs to be an understanding of the interactions between society, industry and the systems that govern us. If we are to achieve success in mitigating climate change through innovative and collaborative means, understanding of this complexity and the roles various stakeholders play is essential. Along with politicians, policy developers and industry, the general public also needs to be an active participant in deciding which pathways, and their subsequent consequences, are acceptable for implementation at the national and/or local level. In addition to participating in the decision-making process, individuals will also be essential contributors to the effective execution of the selected mitigation options. If the aim is to mobilize citizens into being an active participant to achieve a low and clean energy future, then two key areas can be analysed: first, what motivates individuals to use less energy (low energy future), and second, how opinions are formed which shape acceptance for energy technologies (clean energy future). Besides providing a study of the current literature, we propose several areas for further research and evaluation, and hope that our suggestions provide an initial starting point for applied researchers wishing to develop more sophisticated approaches to motivating energy-saving behaviour and uptake of low emission technologies.

Introduction For more than 20 years there has been a concerted international effort towards addressing climate change. International conventions, such as the United Nations Foreign Convention on Climate Change (UNFCCC; ratified in 1994), have been established by committed nations seeking to stabilize atmospheric concentrations of greenhouse gas (GHG) and limit temperature increase in the future. Nations will need to consider many opinions, hold several discussions and make hard decisions if various pathways are to be implemented at the scale that is required to meet international emission targets. Mitigation options range from technology development, energy efficiency, cap-and-trade systems, trading emission permits, taxing emitters, alternative transport and fuel sources, behaviour change and many more [1]. www.sciencedirect.com

Motivating individuals to use less energy Several behavioural interventions are already available to help encourage individuals to save energy, and although stringent research trials are few and far between, it does seem reasonable that such initiatives can achieve on an average a 10% energy saving for householders [4]. Social modelling and commitment-based interventions in particular have demonstrated strong effect sizes [5]. We propose that even more significant, durable and widespread gains in energy savings can be achieved if we heed insights from the existing literature on human motivation, information processing and decision-making, behavioural economics and sociology [6,7–9]. Research in these domains provides a deep understanding of human behaviour and the process of behaviour change, Current Opinion in Environmental Sustainability 2013, 5:191–196

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which can then be applied to guide new and improved interventions to motivate energy conservation. In this first component of the paper, we focus on information-based interventions because we believe that communication offers a cost-effective, primary solution to societal-level behaviour change, and because information is a component of most, if not all, interventions. The provision of information is by far the most commonly used intervention to promote energy conservation. However, for well over a decade we have known that increasing information in and of itself will not lead to behaviour change [4,10]. Rather than classify information as a niche-market behaviour change strategy, there is a certain caveat upon which we can capitalize — for information to be effective, it needs to be coupled with motivational strategies [11]. The usual suggestions include coupling information with other interventions such as goal-setting, financial incentives and feedback [11]. However, we concur with human motivational researchers that the very way in which information is composed, framed and conveyed is a motivational intervention [12]. Evidence from social cognition research demonstrates that information can be strategically designed to encourage deeper processing of information and greater attitude–behaviour correspondence (see the Elaboration Likelihood Model of Persuasion [13,14]). In the absence of such, individuals are much more likely to use the alternative mode of information processing (i.e. peripheral processing) which draws on fewer cognitive resources and is associated with weaker attitude–behaviour correspondence. Human motivation theory also underscores the criticality of motivation in the process of behaviour change — it asserts that environmentally responsible behaviour is more likely to be initiated and sustained when individuals are autonomously motivated rather than extrinsically controlled [5]. Thus, the key research question is how can we design information-based interventions that stimulate natural motivation? There are several ways in which we can design information to ensure personal engagement, deeper processing and greater attitude–behaviour correspondence. Existing information strategies such as home energy audits and tailored feedback highlight the positive influence of personalization — that is, providing information that addresses individual needs and is therefore, personally meaningful. Individuals are more likely to attend to, and process information that meets a personal need. However, this raises significant challenges in terms of designing individualized information needs analysis that is cost-effective to implement, and whether it still precludes a large portion of the population who do not actively seek such assistance in the first place. What is still needed is the personalization of information en masse. Current Opinion in Environmental Sustainability 2013, 5:191–196

While it may not be possible to achieve personalization to a fine-grained level, we believe it is possible to expand the concept of individual needs to broader clusters of motives or goals that guide energy consumption and conservation, and in such a way that aligns with intrinsic versus extrinsic goals (see Goal Framing Theory [15–17]). Environmental message framing research has examined loss versus gain frames (e.g. [18–22]), however, we propose there is greater value in studying the nature of goals because goals are what essentially drive behaviour. Research on the reasons why people engage in environmentally responsible behaviour indicate that there are reasons beyond environmental motives such as saving money [23], frugality [24], desiring a simple lifestyle [25] and human rights issues [26]. Research on normative feedback (see the Theory of Normative Conduct [27,28]) also demonstrates the powerful motivational effect of normative goals on energy-saving behaviour [29–32], which can be explained by the fact that people tend to do what is commonly performed or socially approved [33]. Research should continue to systematically test the efficacy of differently (goal) framed messages by incorporating the range of reasons why people engage in energy conservation as well as energy consumption. The notion is that these broader level goals can be strategically incorporated into information, to attract attention and encourage deep information processing. Beyond goal framing to achieve personalization and engagement with the message, there is a wide range of persuasion principles/techniques which can be incorporated into communication efforts to enhance salience such as referring to a trusted source of information, using emotive language and providing visual cues and vivid examples. In particular, a focus on conceptual semantics is considered crucial to designing motivational messages, given the associations we have for certain words and phrases [34]. In addition to persuasiveness, it is important to consider the complexity of information because people are limited by their cognitive capacity to process information. It is recommended that simple, straightforward messages are used, and where a problem is already known, the message should concentrate on providing solutions that are articulated in terms of specific personal actions [12]. Research on implementation intentions, the articulation of actual plans/intentions to take action, has shown that this technique is a particularly promising method to establish new habits [35,36]. This is because implementation intentions assist individuals to establish a plan and commitment to perform the behaviour when a specific environmental cue is present. To assist with simplicity, we also suggest a focus on few high-impact behaviour changes such as cold water washing and space cooling/heating [37] as opposed to a long list of behaviour changes. If people are given clear information on the top two or three behavioural changes that have been proven to make a difference, then www.sciencedirect.com

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it is likely that they will retain and potentially act on this information. Finally, the timing of information delivery is also crucial, with greater impacts likely during significant life changes such as moving home and purchasing new appliances — when people are naturally open to changing their habits and routines [38]. While we have focussed on information-based interventions in this paper, we recognize that there are additional, complementary strategies that should be deployed to guide and support individuals towards energy-saving behaviour [7,8,38]. These strategies primarily work by changing external variables that help disrupt existing habits. For example, the modification of situational cues (e.g. changing the default manufacturer setting on the washing machine to cold wash) can help effortlessly establish new energy routines and practices which are largely habitual and routine in nature. Additionally, electricity tariffs that reward energy-saving behaviour (i.e. peak time rebate) are likely to be more attractive to customers, as compared to pricing regimes that punish energy consumption behaviour (i.e. critical peak pricing). While these types of strategies work synergistically with information-based interventions, it is often the case that they occur at a later stage because they usually require change at a systems or structural level. Along with mitigation pathways such as behaviour change, the success of climate change policies depends more heavily on the development and commercial scale implementation of new energy technologies. More recent research has invested into gaining a better understanding of public opinion and attitude towards low emission technologies and to determine what influence these may have on societal uptake [39,40]. Despite these efforts however a chasm continues to exist between what science and policy makers know and what is understood and perceived by individuals in society [39]. On the basis of this emerging field of study, this second component of the paper will analyse how individuals can be motivated to support low emission technologies that can lead to a clean energy future.

Uptake of low emission technologies As a technology moves from concept through design to implementation, there is a parallel requirement to understand the context in which it operates or is likely to operate [41–43]. For instance, researchers focussed on understanding acceptance of the range of low carbon energy solutions have also tended to investigate attitudes towards climate change. This is because early research has found that when reducing emissions is seen as unnecessary, support for investment in low carbon energy options rapidly wanes [44–46]. Results of research on public perceptions and understanding of climate change and various energy technologies vary and are usually highly dependent on context. For example, timing of www.sciencedirect.com

the investigation, particularly with respect to a country’s recent weather patterns and current political approach to climate change and technology investment, typically influences how individuals respond to certain questions on their beliefs and experiences of a changing climate and energy infrastructure [47,48]. Alongside environmental, economic and political context elements, social factors that influence perceptions as well as acceptability of viable mitigation options also need to be considered. Concerns regarding fairness and trust were key determinants of perceptions of some technologies in the communities studied [45] but this is a clear area for development across multiple technologies and regions. In addition to understanding context, the influence of knowledge levels is also salient to technology acceptance [42]. We know that public deliberation, discussion and engagement around new energy technologies have increased over the past years [49,50,51] yet some of these technologies still remain unknown to the general public, for example carbon dioxide capture and storage (CCS) and geothermal [42,52]. Consistent findings demonstrate high levels of acceptance for better known technologies, such as solar and wind, as opposed to lesser known technologies, mainly due to higher levels of self-rated knowledge [44]. From the risk perception and risk communication literature, raising awareness and knowledge of the suite of energy technologies available in order to make an informed opinion would be one of the first key steps. Therefore, similar to behaviour change interventions, information provision also plays a key role in strategies aimed to educate individuals about various energy technologies [47]. Yet technology acceptance research finds a weak connection between solely increasing information and levels of acceptance [42,53], supporting comparable findings in the behaviour change field. For information to be effective in growing acceptance, it needs to be embedded in a more comprehensive engagement strategy [39,41,42]. At the local level, some researchers have examined the consultation, engagement and communications strategies used by project developers to determine the factors which promote effective interaction and sharing of information with communities. Findings suggest a need to: understand local contingencies and engage local stakeholders early; initiate open two-way dialogues; engender trust between the project developer and other stakeholders; and provide high quality information in a mix of formal and informal, technical and simple formats (e.g. [54]). Each of these factors is supported by the previously mentioned research from the human motivation and social cognition fields in regards to effective message framing, use of trusted sources of information, providing visual cues and vivid examples to influence opinion formation. In regards to the role of scientists in being trusted sources of information, some researchers do warn biophysical and Current Opinion in Environmental Sustainability 2013, 5:191–196

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social scientists against persuasive communication designed to advocate a particular position or course of action. Instead, they stress the need for scientists to occupy the role of trusted intermediary such that they empower citizens’ choices and decision-making around such a complex issue. To this end, there is a need for people to get information in a credible, comprehensible form (e.g. [55]) as well as in a simple, straightforward message, as suggested for behaviour change communication. In addition to effective message and information framing, the Elaboration Likelihood Model of Persuasion [13,14] also highlights the influence of social norms on the formation of opinions. From a collaborative engagement approach, social interactions and community participation provide a conduit for fundamental knowledge development, that once instilled and reinforced through social norms moves from the more external or extrinsic form of knowledge to become deeper, more inherent and intrinsic [56]. A constructivist perspective suggests that knowledge develops continually, based not only on previous understanding instilled by culture and social interactions and personal experience, but through the interchange of information. Thus, knowledge is constantly being transformed particularly in regard to the gaining of knowledge on new concepts. Therefore, in regards to building acceptance for energy technologies, benefits can be seen in embedding opportunities for individuals to socially interact and hold discussions about various technologies, which encourages collaboration and knowledge sharing and assists in connecting to new ideas and information [56,57].

efficient technologies, are needed. Investment in this programme of research is likely to yield significant and immediate returns.

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Conclusion In summary, there are several ways to apply motivational principles to communication efforts, so that individuals are more likely to engage with, and process the message and translate it into action. With careful consideration of how humans process information, form opinions and make decisions, it is possible to craft messages that stimulate the desired response. As informing the public has been shown to lead to increased awareness levels, debunked long held beliefs, and increased individual confidence in the opinions held on different topics, accurately informing the public and thus creating a general baseline of knowledge may be useful for dissemination of information later on, for example for specific climate change policies such as a technology development and behaviour change solutions. The opportunity is now ripe to capitalize on society’s naturally elevated motivation to change (given recent and predicted energy price increases), so longitudinal, randomized controlled studies that evaluate the impact of variously framed communication messages on objectively measured energy savings and acceptance of energy Current Opinion in Environmental Sustainability 2013, 5:191–196

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