Abstract
Numerous recent studies project that ‘climate engineering’ technologies might need to play a major role in the future. Such technologies may carry major risks for developing countries that are often especially vulnerable to, and lack adaptive capacity to deal with, the impacts of such new technologies. In this situation, one would expect that developing countries—especially the least developed countries that are most vulnerable—should play a central role in the emerging discourse on climate engineering. And yet, as this article shows in detail, the discussion about whether and how to engage with these technologies is shaped by experts from just a small set of countries in the Global North. Knowledge production around climate engineering remains heavily dominated by the major research institutions in North America and Europe. Drawing on information from 70 climate engineering events between 2009 and 2017 along with extensive document analysis, the article maps a lack of involvement of developing countries and highlights the degree to which their concerns remain insufficiently represented in politically significant scientific assessment reports. The article concludes by sketching options that developing countries may have to influence the agenda on climate engineering, reflecting on earlier attempts to increase control over novel technologies and influence global agenda setting.
1. Introduction
At the 2015 Paris conference on climate change, governments agreed to limit temperature increase to well below 2 °C, aiming for 1.5 °C. The question is now: how to get there? Influential climate models seem to suggest that reaching these targets would require substantial interventions into the earth’s natural systems through so-called ‘climate engineering’ technologies. For example, most of the low-temperature pathways presented in the Intergovernmental Panel on Climate Change’s Special Report on 1.5 °C rely on a massive expansion of bioenergy use with subsequent carbon capture and storage, or large-scale afforestation, to extract billions of tonnes of carbon dioxide from the atmosphere. The report’s reference to stratospheric aerosol injection (a technology that imitates volcanic eruptions to cool global temperature) as an option to ‘temporarily reduce the severity of near-term impacts’ in overshoot scenarios further indicates that in mainstream climate science, some form of climate engineering is expected to become part of the response to climate change (Allen et al. 2018, p. 71).
In OECD countries, some of these technologies are already considered as potential climate policies. For example, the United Kingdom has allocated substantial funding to study greenhouse gas removal technologies (Natural Environment Research Council 2018), and Sweden aims to achieve negative emissions after 2045 including through investment in climate projects abroad (Government Offices Sweden 2017). Several United States government agencies (including the Department of Energy, the National Aeronautics and Space Administration and the National Oceanic and Atmospheric Administration) commissioned a special report on climate intervention that was published by the National Academy of Sciences in 2015 (McNutt et al. 2015a, b). Also major transnational companies like Shell are relying on carbon dioxide removal for scenarios in which they would conform with the 2 °C target (Evans 2018).
Yet, recent studies also show that using bioenergy at the scale suggested would result in major impacts on land use, water availability and loss of natural habitat (Boysen et al. 2017); and stratospheric aerosol injection could impact global precipitation patterns, possibly inducing drought in equatorial regions (Tilmes et al. 2013). Most severely affected by possible negative impacts would be the world’s least developed countries. These 47 low-income nations are identified by the United Nations as those with the most severe structural impediments to sustainable development, especially high vulnerability to economic and environmental shocks and particularly limited human assets. It is in these countries where the impacts of environmental change already pose substantial threats to human development (Biermann et al. 2016).
And yet, it was the least developed countries that were central in advocating for the 1.5 °C target. Together with the (partially overlapping) group of small island states, they provided much of the political momentum to adopt the more stringent temperature target of 1.5 °C in the Paris climate negotiations (Brun 2016).
Given that the least developed countries pushed for this ambitious climate policy goal, how is it then that the global community’s most influential scientific reports on climate change suggest solutions that might bring additional risks for them?
In this article, we argue that one part of the answer lies in the composition of the climate science community and its low representation of authors from the Global South. Given the principle of sovereign equality in international law that grants each country the same vote, least developed countries enjoy, just through their numbers, substantial influence in intergovernmental negotiations. Yet, their lack of involvement in climate mitigation science means a lack of voice in formulating climate scenarios and policy options. Because of this, climate engineering options like large-scale afforestation or the massive expansion of bioenergy with subsequent carbon capture and storage are deemed reasonable, despite their potentially negative impact on important concerns of least developed countries. These include ending patterns of growth that thrive on the unsustainable use of public goods, the extraction of natural assets and the exploitation of developing countries’ labour (Least Developed Countries Independent Expert Group 2014).
In the following, we give first a brief background to our study and then present our analysis on the representation of least developed countries in climate engineering science, highlighting their lack of voice in the production of knowledge and the limited acknowledgement of their concerns in assessment reports that inform governmental decision-making. We subsequently suggest options that least developed countries could pursue to gain influence on the types of pathways and scenarios that are prioritised in influential scientific arenas.
2. Climate engineering, least developed countries and the long-term global goal
An analysis of the influence of least developed countries in global debates on climate engineering needs to be seen in light of the general evolution of climate science over the last decades. For example, recent analyses of the IPCC show that the composition of authors who contribute to writing IPCC reports is heavily dominated by experts based in Europe and North America. This was blatantly the case for the first IPCC reports in the 1990s (Biermann 2001, 2002), but has not changed much. Evaluating the four assessment reports published between 1990 and 2007, Ho-Lem et al. (2011) found that people from Africa or South America make up only 3.1% of IPCC authors in total, compared to 35.6% and 37.2% from Europe and North America. Also, 45% of all countries—all from the developing world—have never had authors contributing in IPCC processes. Corbera et al. (2016) conducted a comparable analysis for the IPCC’s fifth assessment report, in which they find a dominance of institutions from the United Kingdom and the United States that act as training sites for authors in working group III (the section of the assessment report that focuses on mitigation in particular). This leads them to conclude that the United States and the United Kingdom are even more dominant than the number of participating authors reported by either of these countries.
Despite the overrepresentation of the Global North in climate science, the policy solutions that are being developed often affect especially developing countries. The highest potential for bioenergy development and industrial forestry, for example, is consistently projected to be in developing countries around the equator (Haberl et al. 2011; Zomer et al. 2008). The same holds for carbon dioxide removal techniques that are not based on photosynthesis, for instance, mineral weathering that involves industrial scale, open-pit mining of olivine and other silicates (Kohler et al. 2010). Least developed countries, on their part, generally lack financial and institutional capacity, which make them vulnerable to increasing land acquisition by foreign investors. They are also prone to suffer from food insecurity caused by investment in bioenergy crops, regardless of where they are grown (Yengoh and Armah 2015).
High risks for least developed countries also come with other climate engineering technologies, for instance, with stratospheric aerosol injection and its requirement to maintain deployment until carbon dioxide concentrations have been reduced. Some models suggest that stratospheric aerosol injections would influence precipitation patterns and reduce rainfall in areas that rely on the monsoon and that reducing such variations in precipitation would require ‘overcooling of the tropics’, hence even more deployment in equatorial regions (MacMartin et al. 2013). Although stratospheric aerosol injection is a comparatively cheap technology to deploy, its effective continuous deployment requires money, technological capability as well as effective command of territory and some degree of global power (Parson 2014). Given these requirements, smaller developing countries are unlikely to be able to actively use stratospheric aerosol injection themselves. Using stratospheric aerosols to limit global temperature rise would hence create a century-long dependence on those governments that do have the necessary means for such interventions. This dependency on powerful actors and their decisions on where and how to deploy stratospheric aerosol injection would run counter to some of the post-2015 Sustainable Development Goals that least developed countries have prioritised, in particular addressing the highly imbalanced political economy and fostering democratic systems to manage public goods from the local to the global level (Least Developed Countries Independent Expert Group 2014).
Despite all these side effects, developing countries might decide that some form of climate engineering is in their interest. In a recent comment in Nature, academics from Bangladesh, Brazil and Ethiopia rejected the ‘paternalistic’ advice provided by some non-governmental groups that advocate against climate engineering technologies because of its implications for Africa. They argue that there is only so much that developing countries can do to advance mitigation and that the primary actors on this front are in the Global North. If temperatures keep rising, the benefits of stratospheric aerosol injection may outweigh its drawbacks (Rahman et al. 2018). In their study of non-western perspectives, Carr and Yung (2018) come to a similar conclusion. Based on interviews with environmental professionals from the South Pacific, Sub-Saharan Africa and the North American Arctic, they find that people who are highly vulnerable to climate change might be willing to consider stratospheric aerosol injection, but that their acceptance is characterised as ‘deeply reluctant and highly conditional’ and must be understood in the context of frustrations with the current lack of mitigation.
In short, the stakes for least developed countries are high. If the Paris temperature targets are not reached due to lacking reform measures in the Global North and more wealthy parts of the Global South, then least developed countries might face a difficult choice: between the risks of drastic climatic change and the risks of supporting climate engineering by powerful industrialised countries.
Yet, what is their role in current debates? How are they involved, to what extent are their views and concerns represented and through what means could they influence the climate engineering discourse? These questions are of great importance, particularly under the consideration that science and the epistemic communities that produce it play a fundamental role in shaping the ‘realities’ that inform world politics (Antoniades 2003). The way that climate engineering is defined and the questions that are being asked are already shaped by some countries in the Global North, not least by their authoritative scientific bodies (Belter and Seidel 2013; Gupta and Möller 2018).
In the remainder of this article, we analyse the degree and types of involvement of representatives of developing countries, especially least developed countries, in discursive networks around climate engineering. We look at both the discursive process and the discursive content. We study the process by analysing representation in the epistemic community around climate engineering, understood as the community of experts actively involved in producing knowledge on the subject and fostering interest for their community’s policy project (Antoniades 2003). We study the content by evaluating the climate engineering discourse in areas where science is expected to have high impact on policy. These are best captured in scientific assessment reports and in the reports of science policy workshops in the Global South.
3. Representation in the discursive process
To assess representation in the discursive process, we analysed lists of speakers at climate engineering events and the organisations that they are affiliated with. These events were identified with the help of climate engineering newsletters (including the ‘Geoengineering Google Group’ and the ‘Climate Engineering Newsletter’ distributed by the Kiel Earth Institute), snowballing on from there to look for further activity of any mentioned research projects. We identified 84 events related to climate engineering that took place between 2009 and 2017: 75% in OECD countries (of which three-thirds were in the United Kingdom, the United States and Germany); 13% in the group of the so-called BRICS countries (Brazil, Russia, India, China and South Africa); and 12% in developing countries. Out of these 84 events, 70 provided information about the programme and were thus included in our further analyses. (Those that did not provide information reflected the same geographic proportions as the events overall.) The resulting database contains 1263 speakers, which can be aggregated into 779 individuals. 208 of these individuals spoke at more than one event, indicating a relatively small active epistemic community.
For each speaker, we recorded their (self-reported) affiliation and coded these organisations according to the country in which it is based. We then calculated the distribution of countries based on institutions that appeared more than once in the database, signifying substantial involvement. Our use of organisations to measure country representation is partly motivated by theoretical and partly by practical reasons. The institutions in which researchers work play an important part in their scientific socialisation and the research they engage with (see also Corbera et al. (2016)). It is therefore worth looking at where the research is being produced rather than focusing on the nationalities of researchers. Furthermore, coding researcher nationality is a difficult endeavour that entails the collection of personal information, while not necessarily providing insights important to the research question overall.
Figure 1 provides descriptive statistics about the geographical origin of organisations represented at climate engineering events. For each year, the graph distinguishes between researchers based at organisations in OECD countries (1), BRICS countries (Brazil, Russia, India, China and South Africa) (2) and developing countries (3). Importantly for our study, in all workshops, no active member from an organisation based in a least developed country was represented; because the value for ‘least developed countries’ would have been consistently zero, we excluded it from the graph that we present here.
Author
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Frank Biermann is a research professor of Global Sustainability Governance with the Copernicus Institute of Sustainable Development at Utrecht University, The Netherlands. He is an internationally leading scholar of global institutions and organizations in the sustainability domain. Biermann has authored or edited 19 books and published about 200 articles in peer-reviewed journals and chapters in academic books. He is frequently invited to participate in advisory and evaluation committees and has spoken at the United Nations General Assembly, the European Parliament and the European Economic and Social Committee. From 2003 to 2015, Biermann was professor and head of the Department of Environmental Policy Analysis at the VU University Amsterdam.