There has been a boom in the sale of small-scale off-grid solar products across the Global South over the past decade. A substantial portion of this boom has been driven by international investment in off-grid solar start-up companies, and a formalized off-grid solar sector has been established, with the Global Off-Grid Lighting Association acting as a key representative body. Although this boom has aided in extending electricity access to many energy-poor households and businesses, an emerging concern is the short (three to four years) working life that these off-grid solar products typically have. This has led to a growing issue of solar e-waste. Here we examine how the structure of the off-grid solar sector results in substantial barriers to addressing solar e-waste in the Global South. We consider how practices of repair might contribute to addressing the issue, and set out a research agenda to facilitate new approaches to the issues of solar e-waste.
The sale of off-grid solar (OGS) products—in the forms of solar lanterns and small solar home systems (SHSs)—has experienced an unprecedented boom in the Global South over the past decade. In 2019 alone, more than 35 million solar products were sold (equating to around US$1.75 billion in sales), a precipitous rise from the 200,000 products sold in 2010 (Fig. 1)1. In part, this boom has been driven by the rapid and substantial decrease in the price of components for these systems, which has led to the establishment of an OGS private-sector industry in the Global South2, and the emergence of an OGS industry that has attracted more than US$2 billion in investment (equity and debt) since 20103,4.
Established predominantly in East Africa, a range of OGS start-up companies in this sector are increasingly expanding their operations to other regions in the Global South experiencing energy poverty, including broader sub-Saharan Africa, South Asia, South-East Asia, the South Pacific and Latin America5,6. These companies tend to use a range of financial and technology innovations to facilitate the ‘last-mile distribution’ of solar products across the Global South. Solar lanterns initially dominated sales in this sector (comprising an estimated 160 million of the 200 million OGS products sold since 2010); however, pre-packaged SHSs are becoming increasingly prominent (40 million sold since 2010)7. Early on, these SHSs were basic—comprising a few lights and a plug for mobile phone charging. Since 2016, however, they have become more sophisticated and often include radios, television sets and fans.
A striking dimension of what Munro terms the private-sector-driven ‘photovoltaic turn’ in the Global South8 is the way in which OGS is celebrated as a key means to address the overlapping challenges of energy poverty as encoded by the United Nation’s Sustainable Development Goal 7 (SDG7) alongside adaptation to climate change and decarbonization9. As Paterson and Stripple argue, in the case of carbon offset markets, the virtuous qualities of ‘green’ technologies have been critical in the construction of novel environmental markets10. In a similar way, solar technologies generally, and OGS technologies more specifically, are often encoded as unambiguously morally good11. However, in the wake of this triumphalist story of off-grid electricity roll-out and access, the altogether murkier story of solar waste has become apparent11,12. As Cross and Murray note12, an overlooked socio-cultural and political dimension of the OGS market in Africa in recent years is the question of what happens to these solar technologies when they break down.
Accentuating this issue is that many, perhaps even the majority, of solar products sold in the Global South are described as being ‘generic, copycat and counterfeit (photovoltaic) products’13, and often only have working lives of a couple of years. Even branded, small-scale solar products usually only have one-year warranties, with an expected working life of three to four years12,14. Thus, the expected increase in the disposal of off-grid solar e-waste (SEW) in the Global South ‘is potentially the dark side of a promising innovation’2, a problem that was predicted several years ago15.
In the shadow of the 200 million products (and associated appliances) sold since 2010, is a wave of waste that much of the Global South is poorly equipped to deal with due to the decentralized nature of OGS products16. Although solar suppliers and investors in the Global North have only recently started to take action on managing e-waste, they tend to sell much larger and more expensive solar systems with working lives of about 25 years, and operate in contexts with comparatively stronger regulatory frameworks, including quality standards and waste management infrastructure. OGS products sold in the Global South, including photovoltaics (PV), batteries (lead-acid and lithium) and lights, contain ‘various hazardous materials, such as lead, cadmium, mercury and sulfuric acid, which may cause serious adverse effects to humans and the environment’2. Given that hazardous waste geographies disproportionately affect poor and marginalized communities17, if solar waste issues are left unaddressed, they could play a role in undermining SDG10 (reducing inequality) and SDG12 (responsible consumption), as well as goals relating to health and water.
In this Perspective we analyse the dynamics of the OGS sector in the Global South and its implications for SEW. In particular, we focus on the political economy that shapes how the sector operates, and the structural challenges that this ultimately presents in efforts to address solar waste.
Structural challenges in the OGS market
A key player in the Global South OGS industry is the Global Off-Grid Lighting Association (GOGLA), which operates as an independent, not-for-profit industry association. GOGLA was established in 2012 and has over 180 members, for whom it provides advice and support. In partnership with the World Bank, GOGLA also hosts the Global Off-Grid Solar Forum and Expo. The 2020 forum and expo in Nairobi attracted more than 1,500 participants.
GOGLA broadly classifies Global South OGS products as either being affiliated or unaffiliated1,18,19. Affiliated solar products, which make up an estimated 30% of the market1,14, tend to be clearly branded products (that is, selling a brand name) that are usually certified by peak industry bodies (for example, Verasol) and are sold by private-sector companies that have sophisticated websites promoting and marketing their operations, usually with rhetoric around green technology and solving energy poverty. Beyond product development, these start-up companies are also often engaged in strategies to finance and facilitate their distribution, and their overall operations are usually supported by international investment4,20. They tend to frame their work as being social enterprises: market-based initiatives that are solving social (for example, energy poverty) and environmental (for example, climate change) issues11,21,22,23. These companies have attracted more than US$2 billion in international investment, predominantly from impact investors. Nevertheless, the industry is still nascent. Very few of the companies distributing OGS projects in the Global South are profitable; rather, current operations tend to be financed by debt and equity investments, making long-term financial sustainability an acute challenge across the sector4,24. The company Mobisol is emblematic of this challenge. It was heralded by many as an early success story, selling OGS products in East Africa25, and was framed as one of the stars of the sector of for-profit enterprises26. Mobisol filed for insolvency in 20194.
In parallel with this investor-backed PV industry has been the emergence of another solar market in the Global South. This market comprises the sale of what GOGLA and Lighting Global describe as unaffiliated products1. These unbranded products have proliferated alongside the affiliated solar product distribution chains and are sold by hardware stores, street vendors and informal purveyors27,28,29,30. Often deriving their designs from affiliated solar products, they are sold at cheaper price points, with their quality being more ambiguous23. Their presence is immense. Although the nature of their trading networks is rather inscrutable, the size of this unaffiliated solar market may be as large 72% of solar products sold, according to industry estimates1. Furthermore, as discussed below, their movement across Global South markets is distinct, creating additional challenges for addressing solar e-waste. The Global South OGS sector is thus complex, multifaceted and geographically dispersed.
Given this challenge, it is notable that current efforts to address SEW in the Global South have predominantly focused on the initiation of recycling schemes, rather than the potential repairability of these devices. As the issues associated with SEW have generated increasing public, non-governmental organization (NGO) and critical scrutiny31, the key industry players have responded by instituting a range of recycling and product stewardship schemes. Examples include the work of the waste management companies Enviroserve in Rwanda and Hinkley recycling in Nigeria, each collecting around 85 tonnes of solar e-waste in 2019 as a part of the Global LEAP Awards Solar E-Waste Challenge32.
These are important responses to SEW, but research suggests that they do not go far enough, as their reach is limited and, ultimately, they rely on relatively expensive infrastructure and logistical operations for waste collection. Importantly, these recycling projects also largely centre and rely on established solar distributors to conduct product returns. Indeed, recent research on extended producer responsibility in the electronics sector has shown how these top–down approaches can sometimes marginalize, and render illegal, successful and more localized informal repair and refurbishing economies33,34. In comparison, as we detail below, repair is a more salient approach for addressing solar e-waste, as it addresses e-waste much earlier on in the stream, it can provide economic benefits to the communities who do the repairing, and it can operate with more decentralized infrastructure and investment, making it a potentially scalable solution to the larger problem.
Recent international efforts to improve the repairability and interoperability of consumer electronic devices in general, and off-grid appliances specifically, have been the focus of sustained activism and advocacy that has culminated in the adoption of ‘right to repair’ provisions in intellectual property and consumer law31. However, it is notable that the adoption of right to repair provisions is unevenly distributed globally35. At the same time, recent scholarship has highlighted that enactment of right to repair provisions, common in the Global North, may have the effect of overshadowing locally coordinated cultures of repair and reuse that are common across Africa36. This work suggests that realization of a Global South ‘right to repair’, particularly in the context of SEW, requires a critical understanding of how political and economic dynamics shape OGS markets.
In the following sections, we attend to four structural challenges in the OGS market that have direct implications for SEW in the Global South. The first centres on the waste implications of competition between affiliated and unaffiliated OGS products. The second and third challenges centre on the SEW implications of manufacturers’ black-boxing technologies and the promotion of closed proprietary hardware ecosystems, respectively. The fourth challenge underscores the distributional challenges that characterize last-mile distribution in the OGS market and what this means for the issue of SEW.
Affiliated versus unaffiliated competition
The competition between affiliated and unaffiliated solar products is a central dynamic of the OGS market and is a key driver of SEW in the Global South. Although the production costs of solar panels and batteries have plummeted over the past decade, unaffiliated products still dominate most OGS markets1. For energy-poor households, unaffiliated solar products offer distinct advantages, being regarded as offering greater value relative to their costlier counterparts18,27,28. This has substantial implications for the burgeoning issue of SEW. In general, OGS-sector companies selling affiliated solar products have been somewhat active in implementing voluntary solar waste initiatives, with support from GOGLA37. As distributors of affiliated products tend to position themselves as social enterprises, these efforts are probably driven by a range of ethical and reputational obligations—to consumers, financiers and partners11—and they therefore have engaged in nascent attempts to address SEW38. In contrast, unaffiliated products, which tend to be sold through diffused networks of third-party distributors, have no direct involvement in SEW initiatives. Given that they constitute the majority of OGS products sold, the question of who bears responsibility for the resultant SEW looms large.
The proliferation of SEW is concentrated in nations of the Global South that lack the infrastructure and institutional capacity to tackle electronic waste, suggesting that the problem is not likely to be addressed by local regulatory bodies39. This is particularly the case given the dominance of unaffiliated OGS products, which often fail to meet current regulatory quality standards and minimum warranty requirements, highlighting the limited capacity for regulatory enforcement. Given the ubiquity of unaffiliated solar products, there are also concerns among affiliated companies that poorly designed regulatory frameworks might result in their businesses facing unfair competition from non-compliant distributors or bearing the costs of managing the waste of unaffiliated products, forcing them to raise their prices and thereby reduce their competitiveness1. These dynamics highlight the limitations of relying on market forces or government policies to address SEW.
The black-boxing of technology is a common practice in the OGS industry, particularly among affiliated manufacturers4. OGS products tend to rely on design techniques common in consumer electronic devices more generally, including the use of proprietary screws and tamper-proof design layouts that are intended to limit third-party access and repair. In addition, many OGS products utilize parts that are difficult to source locally. These design strategies are commonly rationalized in terms of ensuring quality and the preservation of product warranties. However, perhaps a more important factor in the inflexible design of OGS products is the way in which these devices are integrated with pay-as-you-go (PAYG) technologies, which are increasingly used in affiliated products40,41,42. At the heart of PAYG technology is the ability for distributors to remotely enable or disable their systems based on the user’s payment status. Understandably, affiliated producers and distributors see protecting interference with this remote locking technology as paramount43. It is increasingly the linchpin upon which their ability to lower the cost of operations and better compete with unaffiliated products rests. Thus, the limited repairability of affiliated products has direct implications for SEW, particularly as informal repair is widespread in the Global South14,44. This could also explain why unaffiliated solar products can be seen as offering greater value for money. Although unaffiliated solar products may—though not always27,28—be of lesser quality and durability, they tend to be easier to repair or upgrade in the informal repair markets on which energy-poor households tend to rely14. However, poor product quality, along with the limited skills and experience among informal technicians in repairing OGS products with closed/black-boxed designs, means that large volumes of unaffiliated products can end up as SEW.
There are signs that the affiliated tier of the OGS market recognizes the importance of improving repairability and extending the life of their products. The Global LEAP Awards has provided recognition and grant funding to firms looking to improve repairability, upcycle or recycle solar components. One example is Acceleron, which seeks to advance a circular economy for lithium-ion batteries by upcycling end-of-life batteries into new low-cost ones37. In parallel, there are products such as those offered by SolarWhat?! and Kuyere! that are seeking to disrupt industry norms. SolarWhat?! describes itself as ‘pro-solar, anti-waste’ and produces solar systems using open-source hardware that are repairable, reusable and recyclable45. Meanwhile, Kuyere!’s emphasis is on creating battery-free OGS systems. The use of capacitors, Kuyere! claims, allows for lower cost and reduced SEW while also providing economic empowerment through more localized assembly46. However, these approaches are still regarded as radical initiatives and are not reflective of the broader dynamics of the industry.
Closed proprietary hardware ecosystem
Allied to the black-boxing of technology within the OGS industry are closed proprietary hardware ecosystems. The majority of affiliated OGS systems distinguish themselves by offering all-inclusive plug-and-play systems. These systems are offered to consumers as integrated systems that require little technical knowledge to install. This compares favourably with unaffiliated solar products, which tend to be sold as discrete components (for example, a solar panel or battery) and require a technician (or semblance of technical skill) to install. However, these affiliated plug-and-play systems also have limited interoperability47. This means that cables and appliances that can be used with such a solar system tend to be brand- or manufacturer-specific. A combination of hardware (ports and cables) and software (digital handshakes) allows affiliated manufacturers and distributors to foster closed-hardware ecosystems48. This is justified in terms of ensuring quality and reliability, such as preventing the use of inferior-quality or incompatible products with their systems. However, it could also be argued that these measures ensure a brand ecosystem that allows distributors and manufacturers to profit from upselling parts and appliances (for example, televisions, fridges and fans). This practice greatly limits consumer choice, results in wasteful duplication, and constrains the establishment of second-hand markets for solar goods, especially for solar appliances48. In contrast, unaffiliated solar products tend to afford users the flexibility to use a wide range of components or appliances. Once again, we see how the affiliated versus unaffiliated dynamic in the industry presents various implications for SEW in the Global South.
Last-mile distribution is a major focus for producers, distributors and financiers of affiliated solar products. Although the tier’s social enterprise credentials appear to rest on its ability to electrify rural households, it is also widely acknowledged that they are the most expensive and challenging to reach1. Over the past decade, considerable resources have been invested in addressing the geographic and logistical challenges posed by OGS markets in the Global South4. This includes grants and supplier-side subsidies to absorb the costs of last-mile distribution49. Given these costs, the financial viability of collecting SEW from last-mile locations is questionable. These costs are exacerbated by the tendency for SEW to be thinly distributed across a growing spread of rural households and villages—it is seldom found in large quantities at a single location16,50. These distribution geographies also highlight the likelihood that the rural poor will disproportionately bear the negative social and ecological impacts of SEW.
We return to the question of who bears responsibility for the SEW generated through the consumption of unaffiliated solar products. Although cascades of importers and vendors ensure that unaffiliated products have superior reach at the last mile in large volumes, this also has the effect of obscuring and diffusing responsibility. Given the intense price competition from unaffiliated companies and the costs of last-mile reach, affiliated solar firms are unlikely to have an appetite for collecting unaffiliated SEW unless considerable financial support or incentives are in place12,32. With meagre state waste management systems and a lack of local recycling facilities for SEW, affiliated distributors would need to absorb the costs of collection, warehousing and transporting SEW overseas for processing—costs that would ultimately be reflected in higher consumer prices, further reducing the competitiveness of affiliated products, or appeals to investors and creditors for more funding.
Future directions in OGS repairability
Although there are notable differences between the affiliated and unaffiliated tiers of the OGS market, our analysis gives emphasis to the common structural challenges that drive the issue of SEW. At its core, these challenges are endemic to market-based approaches, which rely on accelerating circuits of consumption to be profitable. In this paradigm, short product lifespans, black-boxing technologies, closed-hardware ecosystems and limited stewardship of products at end of life are normalized means to achieving a competitive advantage. In effect, even social enterprise start-ups have their choices to address SEW circumscribed by their financial bottom line—or that of their suppliers. This is particularly acute as, for the most part, affiliated companies are not yet profitable; indeed, they finance their operations through debt and equity. Thus, we argue that voluntary industry-led initiatives to address SEW are unlikely to enact major structural change.
More broadly, the issue of SEW is indicative of the harmful consequences of an energy policy that places heavy reliance on the purchase of OGS products as a means to address energy poverty. This is particularly the case in Global South contexts that are ill-equipped to manage the resultant influx of SEW. Although these products do indeed provide the energy poor with access to (limited) electricity, the shadow cast by the millions of short-lived products necessitated to do so needs critical attention. Overall, with poor praxis around SEW, the green credentials of the Global South OGS sector are highly questionable—the truncated life spaces of these off-grid products (one to four years) means that their waste impacts, as well as the energy used in manufacturing and distribution, undermine environmentally beneficial claims linked to their renewable energy status.
Given this situation, more critical research is needed on the potential repair dimensions related to SEW in the Global South. We identify three critical areas where future research needs to be focused to help facilitate greater focus on repair as a means to extend the lives of OGS products. Table 1 provides a breakdown in terms of how the questions relate to and address the four challenges of SEW in the off-grid sector that we identify above.
First, what is the geography of SEW products in the Global South? Apart from some notable exceptions12,51, detailed studies on what actually happens to OGS products in their afterlives are conspicuously absent. Some of the data—in particular for the ~30% of the market that comprises affiliated solar products—is probably known or recorded by off-grid start-up companies in the sector, who often track their products with fintech software as a part of repayment mechanisms52. Beyond this, however, more detailed on-the-ground ethnographic studies are needed, in particular to understand how the materiality of SEW flows is entangled with a range of social and economic geographies. As Cross and Murray observe12, off-grid products, when they stop working, reveal a ‘range of social, cultural and economic activity around disposal, storage, retrieval, repair and reworking’. The where and the what of SEW ultimately has implications for the how of addressing SEW. There is also a critical justice dimension—who gets access to what types of solar product (for example, affiliated, unaffiliated) under what financial regimes (for example, PAYG finance, cash sales), and with what kinds of consumer rights (for example, warranties)? Until a more nuanced picture emerges, any policy initiatives to address SEW are likely to be misguided or inefficient.
Second, what are the barriers in preventing the off-grid solar sector from engaging in repairable design? The widespread use of black-boxed technologies and closed proprietary hardware ecosystems by OGS companies selling affiliated solar products, as we argue above, are antithetical to repairability. Promisingly, GOGLA recently released a white paper on interoperability in the sector, in recognition of the problems posed by closed proprietary hardware ecosystems, with a range of suggestions on how greater standardization for connectors, electrical components and firmware could occur within the OGS sector53. However, the paper is notably cautious—due to GOGLA’s role as an industry representative (rather than advocacy) body—twice stating that GOGLA does ‘not advocate or expect all companies in the OGS (off-grid solar) ecosystem to specialize and become interoperable’.53 GOGLA is cognizant that many OGS solar companies may be reluctant to change their praxis around product design. As such, considerable research needs to be conducted on the upstream of OGS products, to understand current barriers to, and potential avenues towards, greater repairable design in the sector—research that directly engages with people working in OGS companies, as well as their financial backers. This should include a focus on how they rationalize their resistance to repairable design, which is in conflict with the ‘moral good’ narratives in which they contextualize their operations.
Finally, what is the current capacity and what are the challenges of local (and informal) SEW repair? Preliminary research indicates that local and informal repair geographies have emerged in response to the rise of SEW12,14,54. Local repairers—who often have existing business in electronic repair (for example, car batteries, radios and so on)—are often extending their work to include solar repair. However, the extent, distribution, capacity and current impact of local repairers in the context of SEW is largely unknown. What kinds of OGS product are ending up at local repair shops and how? What products can local repairers easily fix? What products do they struggle with and why? What gaps are there in terms of knowledge, tools and spare parts that curtail the potential expansion of local repair as a means to address SEW? Localized repair solutions to SEW evidently exist in some form in the Global South, but research is needed to understand the opportunities to augment and extend these repair geographies, networks and practices.
In this Perspective, we have detailed how the rapid rise of the sale and use of small-scale OGS products in the Global South is ultimately leaving in its wake a critical SEW issue that many nations are poorly equipped to address. Furthermore, we have examined how the political economy of the OGS industry—with indebted start-ups, tensions between affiliated and unaffiliated products, poor repairable design practices (for example, black-boxing, closed propriety technologies) and a sparse distribution geography of OGS—creates a series of structural issues for addressing SEW within the industry. Thus, we argue that voluntary industry-led initiatives to address SEW are unlikely to enact major structural change to waste issues. Subsequently, we have shown that a potential means for reducing SEW flows lies within local cultures of repair that already exist across the Global South. Nevertheless, for these to have a greater impact, more targeted research is needed to better understand the upstream issue of repairable design barriers in the OGS sector, as well as downstream issues relating to the geographical distribution of SEW in the Global South and the current capacities and challenges that shape local SEW repair capabilities.
Lighting Global. Off-Grid Solar: Market Trends Report 2020, March 2020 (World Bank, GOGLA, ESMAP, 2020).
Hansen, U. E., Nygaard, I. & Dal Maso, M. The dark side of the sun: solar e-waste and environmental upgrading in the off-grid solar PV value chain. Ind. Innov. 28, 58–78 (2021).
Global Off-Grid Lighting Association (GOGLA). ‘Investment Data’ Global Off-Grid Lighting Association (GOGLA, accessed 20 November 2021); https://www.gogla.org/access-to-finance/investment-data
Cross, J. & Neumark, T. Solar power and its discontents: critiquing off‐grid infrastructures of inclusion in East Africa. Dev. Change 52, 902–926 (2021).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2018. Public Report (Lighting Global, World Bank Group, 2019).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2019. Public Report (Lighting Global, World Bank Group, 2020).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2021. Public Report (Lighting Global, World Bank Group, 2021).
Munro, P. On, off, below and beyond the urban electrical grid the energy bricoleurs of Gulu Town. Urban Geogr. 41, 428–447 (2020).
Munro, P., van der Horst, G. & Healy, S. Energy justice for all? Rethinking sustainable development goal 7 through struggles over traditional energy practices in Sierra Leone. Energy Policy 105, 635–641 (2017).
Paterson, M. & Stripple, J. Virtuous carbon. Environ. Politics 21, 563–582 (2012).
Cross, J. The solar good: energy ethics in poor markets. J. R. Anthropol. Inst. 25, 47–66 (2019).
Cross, J. & Murray, D. The afterlives of solar power: waste and repair off the grid in Kenya. Energy Res. Social Sci 44, 100–109 (2018).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2018. Public Report (Lighting Global, World Bank Group, 2018).
Samarakoon, S., Munro, P. G., Zalengera, C. & Kearnes, M. The afterlives of off-grid solar: the dynamics of repair and e-waste in Malawi. Environ. Innov. Societal Transit. 42, 317–330 (2022).
van den Bergh, J., Folke, C., Polasky, S., Scheffer, M. & Steffen, W. What if solar energy becomes really cheap? A thought experiment on environmental problem shifting. Curr. Opin. Environ. Sustain. 14, 170–179 (2015).
Kumar, A., & Turner, B. in Energy Justice Across Borders (eds Bombaerts, G. et al.) 155–173 (Springer, 2020).
Balayannis, A. Toxic sights: the spectacle of hazardous waste removal. Environ. Soc. D 38, 772–790 (2020).
Samarakoon, S. The troubled path to ending darkness: energy injustice encounters in Malawi’s off-grid solar market. Energy Res. Soc. Sci. 69, 101712 (2020).
Harrington, E. & Wambugu, A. W. Beyond technical standards: creating an ecosystem for quality and repair in Kenya’s off-grid solar sector. Energy Res. Soc. Sci. 77, 102101 (2021).
Groenewoudt, A. C. & Romijn, H. A. Limits of the corporate-led market approach to off-grid energy access: a review. Environ. Innov. Societal Transit. 42, 27–43 (2022).
Cross, J. Selling with prejudice: social enterprise and caste at the bottom of the pyramid in India. Ethnos 84, 458–479 (2019).
Munro, P. G. et al. Social enterprise development and renewable energy dissemination in Africa: the experience of the community charging station model in Sierra Leone. Prog. Dev. Stud. 16, 24–38 (2016).
Samarakoon, S., Bartlett, A. & Munro, P. G. Somewhat original: energy ethics in Malawi’s off-grid solar market. Environ. Sociol. 7, 164–175 (2021).
Schützeichel, H. The ‘Gretchen Question’ of the Off-Grid Industry: to serve investors or the poor? Sun Connect – East Africa News (22 February 2019); https://sun-connect-ea.org/the-gretchen-question-of-the-off-grid-industry-to-serve-investors-or-the-poor/
Lindner, K. in Decentralised Energy: a Global Game Changer (eds Burger, C. et al.) 245–253 (Ubiquity, 2020).
Goodier, R. Rural solar energy enterprises can learn from Mobisol’s hard-earned lesson. Engineering for Change (3 September 2019); https://www.engineeringforchange.org/news/rural-solar-energy-enterprises-can-learn-mobisols-hard-earned-lesson/
Grimm, M. & Peters, J. Solar off-grid markets in Africa. Recent dynamics and the role of branded products. Field Actions Sci. Rep. 15, 160–163 (2016).
Bensch, G., Grimm, M., Huppertz, M., Langbein, J. & Peters, J. Are promotion programs needed to establish off-grid solar energy markets? Evidence from rural Burkina Faso. Renew. Sustain. Energy Rev. 90, 1060–1068 (2018).
Jaglin, S. in Local Energy Autonomy: Spaces, Scales, Politics (eds Lopez, F. et al.) 291–310 (Wiley, 2019).
Trompette, P. & Cholez, C. in Handbook on Frugal Innovations and the Sustainable Development Goals (eds van Beers, C. et al.) In the press, hal-03100908 (Edward Elgar, 2022).
Spear, R., Cross, J., Tait, J. & Goyal, R. Pathways To Repair In The Global Off-Grid Solar Sector (Efficiency For Access Coalition & The University of Edinburgh, 2020).
Blair, H., Wambui, W., Rhodes, R. & Murray, D. Global LEAP Solar E-Waste Challenge: Lessons on Take-Back, Collection, Repair & Recycling of Off-Grid Solar Products (GOGLA, CLASP, 2021).
Pickren, G. Political ecologies of electronic waste: uncertainty and legitimacy in the governance of e-waste geographies. Environ. Plan. A 46, 26–45 (2014).
Davis, J.-M. & Garb, Y. Extended responsibility or continued dis/articulation? Critical perspectives on electronic waste policies from the Israeli–Palestinian case. Environ. Plan. E Nat. Space 2, 368–389 (2019).
Lepawsky, J. Planet of fixers? Mapping the middle grounds of independent and do‐it‐yourself information and communication technology maintenance and repair. Geo. Geogr. Environ. 7, e00086 (2020).
Hielscher, S. & Jaeger-Erben, M. From quick fixes to repair projects: insights from a citizen science project. J. Clean. Prod. 278, 12387 (2021).
Global Leap Awards. Solar E-Waste Challenge Project Spotlights, February 2020 (accessed 23 June 2021); https://storage.googleapis.com/leap-assets/Winner-Spotlight.pdf
Corbyn, D., Martinez, J. & Cooke, R. E-waste Toolkit Module 4 Briefing Note: E-waste Regulation and Compliance, 2019 (accessed 20 June 2021); https://www.gogla.org/sites/default/files/resource_docs/gogla_e-waste-module-briefing-4_def.pdf
Graziano, V. & Trogal, K. The politics of collective repair: examining object-relations in a postwork society. Cultural Stud. 31, 634–658 (2017).
Barry, M. S. & Creti, A. Pay-as-you-go contracts for electricity access: bridging the ‘last mile’ gap? A case study in Benin. Energy Econ. 90, 104843 (2020).
Kizilcec, V., Parikh, P. & Bisaga, I. Examining the journey of a pay-as-you-go solar home system customer: a case study of Rwanda. Energies 14.2, 330 (2021).
Ockwell, D. et al. Can pay-as-you-go, digitally enabled business models support sustainability transformations in developing countries? Outstanding questions and a theoretical basis for future research. Sustainability 11, 2105 (2019).
Collings, S. & Munyehirwe, A. Pay-as-you-go solar PV in Rwanda: evidence of benefits to users and issues of affordability. J. Field Actions Sci. Rep. 15, 94–103 (2016).
Corwin, J. E. ‘Nothing is useless in nature’: Delhi’s repair economies and value-creation in an electronics ‘waste’ sector. Environ. Plan. A Econ. Space 50, 14–30 (2018).
Solar What?! (Features, 2020); http://www.solarwhat.xyz/features.php
Who we are and What We’re About (Kuyere!, accessed 22 June 2021); https://kuyere.org/about/
Rubino, A. Off-grid electricity: for comfort but not for work. Nat. Energy 2, 17078 (2018).
Pugh, G. Compatibility and Interoperability Technology Roadmap (Efficiency for Access Coalition, 2019).
USAID. Southern Africa Energy Program (SAEP): Market Entry Information Pack (USAID, January 2019).
Magalini, F., Segal, J. & Meloni, M. in The Routledge Handbook of Waste, Resources and the Circular Economy (eds Tudor, T. & Dutra, C. J. C.) 410–419 (Routledge, 2020).
Murray, D. Fixing Development: Breakdown, Repair and Disposal in Kenya’s Off-Grid Solar Market. PhD Thesis, Univ. Edinburgh (2020).
Africa Clean Energy Technical Assistance Facility and Open Capital Advisors. Understanding Impact of Distribution Costs on Uptake of OGS Products in Select SSA Countries (Tetra Tech International Development, 2020).
George, T. & Corbyn, D. The Connect White Paper (Global Off-Grid Lighting Association (GOGLA), 2021).
‘The Global Leap Awards Spotlight SunnyMoney Grow Repair Capacity for Off-Grid Solar in Zambia’ Efficiency for Access (Global Leap Award, 2020); https://medium.com/efficiency-for-access/sunnymoney-grows-repair-capacity-for-off-grid-solar-in-zambia-fd57a2f5f8d4
Lighting Africa. Lighting Africa Progress Report: Building Market Momentum: July 1, 2008–June 30, 2010 (International Finance Corporation, World Bank, 2010).
Lighting Africa. Solar Lighting for the Base of the Pyramid: Overview of an Emerging Market (International Finance Corporation, World Bank, 2010).
Lighting Africa. The Off-Grid Lighting Market in Sub-Saharan Africa: Market Research Synthesis Report, February 2011 (International Finance Corporation, World Bank, 2011).
Lighting Africa. 2nd International Business Conference and Trade Fair: Conference Report, May 18–20, 2010 (International Finance Corporation, World Bank, 2011).
Lighting Africa. Lighting Africa Market Trends Report 2012 Overview of the Off-Grid Lighting Market in Africa (International Finance Corporation, World Bank, 2013).
Lighting Global. Off-Grid Solar Market Trends Report 2016 (Bloomberg New Energy Finance, Lighting Global, World Bank, GOGLA, 2016).
Lighting Global. Off-Grid Solar Market Trends Report 2018: January 2018 (Dalberg Advisors, International Finance Corporation, 2018).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2015. Public Report (Lighting Global, World Bank Group, 2016).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2016. Public Report (Lighting Global, World Bank Group, 2016).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2016. Public Report (Lighting Global, World Bank Group, 2017).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2017. Public Report (Lighting Global, World Bank Group, 2017).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2019. Public Report (Lighting Global, World Bank Group, 2019).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2019. Public Report (Lighting Global, World Bank Group, 2020).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data January–June 2020. Public Report (Lighting Global, World Bank Group, 2020).
Global Off-Grid Lighting Association (GOGLA). Global Off-Grid Solar Market Report Semi-Annual Sales and Impact Data July–December 2020. Public Report (Lighting Global, World Bank Group, 2021).
This work was supported by the UNSW Digital Grid Futures Institute and the UNSW Allens Hub for Technology, Law and Innovation. P.G.M. is the recipient of an Australian Research Council Discovery Early Career Award (DECRA, project no. DE200100912) funded by the Australian Government. U.E.H. would like to express his gratitude to the Ministry of Foreign Affairs of Denmark for providing financial support (research grant no. 20-M07DTU) for his involvement in the writing of this paper.
The authors declare no competing interests.
Peer review information
Nature Energy thanks Josh Lepawsky, Ankit Kumar and the other, anonymous, reviewer(s) for their contribution to the peer review of this work.
Publisher’s note Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Munro, P.G., Samarakoon, S., Hansen, U.E. et al. Towards a repair research agenda for off-grid solar e-waste in the Global South. Nat Energy 8, 123–128 (2023). https://doi.org/10.1038/s41560-022-01103-9