2014 Sochi Winter Olympics

 

When I was younger, I had a dream to represent Singapore as an athlete in the olympics. I had so much admiration for the athletes who participated and the events were always so grandeur that it was always so exciting to watch. Unbeknownst to my younger self, behind the spectacular fireworks and display of excellent sporting events was a colossal source of environmental pollution.

The International Olympic Committee (IOC) is the organisation responsible for overseeing the Olympic Games. Over the years, the IOC has placed a high premium on environmental sustainability for the host countries that had bid to host the olympics (Geeraert and Gauthier, 2017). Despite this, I would say that the 2014 Sochi Winter Olympics has been nothing short of an environmental catastrophe.

During the bidding of the olympics, President Vladimir Putin had vowed to put the environment first, pledging that Sochi’s winter Olympics would follow a zero-waste policy (Sobol, 2015). Despite this, it was subsequently found that the construction waste derived from the preparation for the olympics had been dumped in illegal landfills, but covered in clay and bulldozed over to conceal its presence (Brown, 2013). Furthermore, it was discovered that the $51 billion olympic budget had no allotment for waste treatment as well (Brown, 2013), suggesting that there were no initial intentions in ensuring an environmentally sustainable olympics.

The Russian government had also altered the existing zoning plan of the Sochi National Park, reducing the area covered under strict protection to use the area for olympic preparation (O’Hara, 2015). During the construction, the deforestation of the park would have led to a loss in the carbon sinks, releasing carbon back into the atmosphere. Furthermore, the state continued to plan these constructions in environmentally susceptible areas, approving these plans without the necessary assessments on its environmental impact (O’Hara, 2015). The extent to which the state degraded its own natural environment in pursuit of hosting the Olympic Games suggest the motivations and agendas of the state to be overtly economical or political, neglecting the negative environmental implications of the Olympics.

The blatant dismissal of the environmental repercussions of pollution created by the Olympic Games by the Russian government clearly illustrates the lack of regulatory power that the IOC has in the Olympics. While the government has the authority to make decisions for the country, the repercussions to their decisions lie most significantly on the marginalised communities that do not have the capacity to retaliate. Thus, it is extremely disappointing for me to see that such a beautiful event that is beloved by a global audience has extremely negative environmental implications on marginalised communities.

As a final question to ourselves as consumers: how do we as an audience look past the glitz and the glamour of the Olympics to put our foot down in ensuring environmental justice for the marginalised?

 

References

Brown, A. (2013) ‘Russia’s “Zero Waste” Olympics Is Dumping Waste Everywhere’, The Atlantic. Available at: https://www.theatlantic.com/politics/archive/2013/10/russias-zero-waste-olympics-is-dumping-waste-everywhere/441765/ (accessed March 2022).

Geeraert, A. & Gauthier, R. (2018) ‘Out-of-control Olympics: why the IOC is unable to ensure an environmentally sustainable Olympic Games’, Journal of Environmental Policy & Planning, 20, 16–30.

O’Hara, M., 2015. 2014 Winter Olympics in Sochi: An Environmental and Human-Rights Disaster. In: F. Gemenne, C. Zickgraf and D. Lonesco, ed., The State of the Environment 2015: A Review of 2014. International Organisation for Migration, pp.203-220.

Sobol, A.L. (2015) ‘No Medals for Sochi: Why the Environment Earned Last Place at the 2014 Winter Olympic Games, and How Host Cities Can Score a “Green” Medal in the Future ’, Villanova Environmental Law Journal, 26, 169–192.

The Rise of Green Cryptocurrency: SolarCoin

SMA Offers SolarCoin Crypto Cash to 260,000 PV Owners | Greentech Media

In this last post for the week, we will be looking at various greener cryptocurrencies that have emerged in light of the negative backlash of the carbon-intensive Bitcoin.

Aside from the larger cryptocurrencies like Bitcoin and Ethereum, there are several hundred other cryptocurrencies that have emerged in the market, some of which serve as viable green alternatives of digital currencies.

SolarCoin is a cryptocurrency that was launched in 2014 by Nick Gogerty and Joseph Zitoli as a way to transfer value between people that want to use solar energy (Johnson et al., 2015). The blockchain operates in a way by rewarding SolarCoin users with more coins when they prove that they have generated solar energy via documentation or authorised electricity metering, which incentivises other individuals to use solar energy as well. Furthermore, as SolarCoin engages in using a proof-of-stake (POS) distribution instead of a proof-of-work (POW) distribution like bitcoin, making it less energy intensive. Instead of consuming a tremendous ton of energy for the searching process in the POW distribution where an individual with a greater computational power is awarded, a leader will be selected based on its stakes (their contribution to the blockchain network) to perform mining process and add a new block to the chain (Nguyen et al., 2019).

Additonally, according to Johnson et al., (2015), SolarCoin has a block consensus (a procedure where all the peers in the blockchain reach a common agreement on the existing state of the ledger) time of 1 minute compared to Bitcoin’s block consensus time of 10 minutes, rendering efficiency increases for the amount of blocks that can be transacted every day.

However, despite its greener appeal, the worth of the SolarCoin is minute compared to the colossal value of Bitcoin in the cryptocurrency market. In fact, there are many other cryptocurrencies such as Cardano and Algorand that make use of the greener POS network (La Monica, 2021), but the dominance of the Bitcoin in the market is still highly evident and extremely worrying.

 

 

References

Johnson, L.P., Isam, A., Gogerty, N. & Zitoli, J. (2015) Connecting the Blockchain to the Sun to Save the Planet, Japan: SolCrypto.

La Monica, P.R. (2021) ‘Beyond bitcoin: These altcoins are super popular’, CNN. Available at: https://www.cnn.com/2021/06/16/investing/altcoins-cryptocurrencies/index.html (accessed March 2022).

Nguyen, C.T., Hoang, D.T., Nguyen, D.N., Niyato, D., Nguyen, H.T. & Dutkiewicz, E. (2019) ‘Proof-of-Stake Consensus Mechanisms for Future Blockchain Networks: Fundamentals, Applications and Opportunities’, IEEE Access, 7, 85727–85745.

Retaliation Against Cryptocurrencies

Crypto's Slow Motion Gold Rush - IEEE Spectrum

In the last post, we explored how booming cryptocurrencies such as Bitcoin require energy-intensive mechanisms like mining to operate. Though countries like El Salvador has accepted the cryptocurrency as legal tender, there are other countries and organisations that have been implementing regulations against these energy-intensive currencies to protest against the environmental pollution brought about by their usage.

For example, Tesla CEO Elon Musk had removed Bitcoin as a permitted currency to purchase Tesla’s vehicles, citing his concerns over the increased use of fossil fuels for bitcoin mining and transactions over a Twitter post (Abbruzzese, 2021). On a larger scale, China has implemented a nationwide ban on all cryptocurrencies, with one of the factors to be the high energy use needed to operate (University of Southern California, 2021).

While the regulation has been enacted to reduce carbon emissions, the problem of environmental pollution has unfortunately been worsened after the ban. This is due to the fact that Bitcoin miners were heavily dependent on China’s hydropower as their energy source (Sarlin, 2022). When the ban was enacted, these Bitcoin miners had to shift and find energy elsewhere, which resulted in their shift to dirtier energy sources such as natural gas in the United States (Sarlin, 2022). As hydropower is a much cleaner source of energy, the increase usage of natural gas to sustain cryptocurrency mining operations would result in an increase in the global carbon emissions. Therefore, this illustrates the difficulty in regulating cryptocurrency and the implications of its environmental pollution. Definitely, with the high demand of cryptocurrency usage, banning the process of mining would only serve to shift these miners to other dirtier forms of energy to capitalise on the existing market.

In my opinion, I believe that the environmental implications of cryptocurrencies is something that is extremely complicated to regulate. For one, the appeal of cryptocurrencies stem from its characteristics of legitimacy and anonymity in transactions. However, in order to fulfil these characteristics, energy intensive mining is required. Furthermore, as the cryptocurrency market continuously expands, with the bitcoin market alone thriving at a value of US$1.5 trillion (O’Malley and Zappone, 2021), the demand of cryptocurrency is certainly hard to ignore.

How then do we combat such an impenetrable source of environmental pollution?

 

References

Abbruzzese, J. (2021) ‘Elon Musk backtracks, says Tesla won’t accept bitcoin’, NBC News. Available at: https://www.nbcnews.com/tech/tech-news/elon-musk-backtracks-says-tesla-wont-accept-bitcoin-rcna918 (accessed March 2022).

O’Malley, N. & Zappone, C. (2021) ‘Bitcoin’s dirty little secret: It’s not easy being green’, The Sydney Morning Herald. Available at: https://www.smh.com.au/environment/climate-change/bitcoin-s-dirty-little-secret-it-s-not-easy-being-green-20210506-p57pki.html (accessed March 2022).

Sarlin, J. (2022) ‘Bitcoin is getting even dirtier’, CNN. Available at: https://www.cnn.com/2022/02/26/investing/bitcoin-mining-renewable-energy/index.html (accessed March 2022).

University of Southern California (2021) ‘China Bans Cryptocurrencies’, University of Southern California. Available at: https://china.usc.edu/china-bans-cryptocurrencies (accessed March 2022).

Virtual Currency = Virtual Pollution?

For the past month or so, I have been receiving countless social media advertisements on the topic of investing in bitcoin and various forms of cryptocurrency. However, I didn’t truly understand the concept of cryptocurrency and how it works nor did I understand the environmental implications of currencies like bitcoin. As such, let me break down what I’ve learnt thus far:

Bitcoin, like all other forms of cryptocurrency are mediums of exchange that only exist digitally (Cho, 2021). The appeal of the cryptocurrency is that these currencies are decentralised such that there is no central authority to form a regulating body over these currencies, reducing transaction costs and latency, and preserving forms of anonymity for the dealers (Farell, 2015). Surely, this would mean that the virtual transaction of money would reduce the need for producing physical currency, which would produce less impact on the environment?

This was not the case however as the decentralised nature of the cryptocurrency required a certain mechanism called ‘mining’ to be implemented to ensure the legitimacy of the exchange. In the case of Bitcoin, Bitcoin miners use high-powered computers to solve cryptographic puzzles that validates the transaction data (Mohsin, 2021). Mohsin (2021) further argues that because of the competitive nature of these proof-of-work blockchains, crypto mining has resulted in stratospheric energy expenditures.

For example, in June of 2018, each bitcoin mined required 60,461 kWh of electricity, with the total consumption of electricity just from mining bitcoin amounting to 47.9 billion kWh for the year (Goodkind et al., 2020). Furthermore, it has also been argued that bitcoin emissions alone can push global warming above the 2 degree celsius mark (Mora et al., 2018). To put things into a broader perspective, bitcoin is one of the many existing cryptocurrencies that are present in the market. As such, the energy-intensive mechanism of the entire cryptocurrency mining industry definitely creates an insurmountable amount of pressure on the environment.

Looking forward, I believe that the acceptance of bitcoin as legal tender by nation states such as El Salvador (Youkee, 2021) could potentially push forward the usage of cryptocurrencies, increasing the number of crypto transactions which would ultimately increase the rate of bitcoin mining. Thus, the environmental pollution related to cryptocurrency mining is very much real and not something to take lightly, especially with the rise of the digital age where anonymity is highly prioritised.

 

References

Cho, R. (2021) ‘Bitcoin’s Impacts on Climate and the Environment’, State of the Planet, 20 September. Available at: https://news.climate.columbia.edu/2021/09/20/bitcoins-impacts-on-climate-and-the-environment/ (accessed March 2022).

Farell, R. (2015) ‘An Analysis of the Cryptocurrency Industry’, Wharton Research Scholars.

Goodkind, A.L., Jones, B.A. & Berrens, R.P. (2020) ‘Cryptodamages: Monetary value estimates of the air pollution and human health impacts of cryptocurrency mining’, Energy Research & Social Science, 59, 101281.

Mohsin, K. (2021) Cryptocurrency & Its Impact on Environment, SSRN Scholarly Paper ID 3846774. Rochester, NY: Social Science Research Network.

Mora, C., Rollins, R.L., Taladay, K., Kantar, M.B., Chock, M.K., Shimada, M. & Franklin, E.C. (2018) ‘Bitcoin emissions alone could push global warming above 2°C’, Nature Climate Change, 8, 931–933.

Youkee, M. (2021) ‘Scepticism grows in El Salvador over pioneering Bitcoin gamble’, The Guardian, 30 August.

Pollution by Coffee: Coffee, Cups and Pods Pt. 2

Hello! Welcome back to the finale of our week 7 theme on the environmental pollution of coffee! In this last post of the week, we will be re-examining the pollutive challenges that Starbucks face and how they have successfully (or not successfully) reduced their pollution impacts.

In 2018, Starbucks joined the straw-free movement by announcing that it would eliminate all straws in its outlets by 2020 (Caron, 2018). With this movement, the company then had to switch to using recyclable straw-less lids to cover their drinks. The Frappuccino, which requires a straw to drink, was then provided a more sustainable alternative – paper straws. However, with reference to the previous post, the thicker straw-less plastic lids have raised questions on the efficacy of ensuring the environmental sustainability of their operations as the extra plastic may negate the elimination of plastic straws (Mahdawi, 2018). Mahdawi (2018) further corroborates her argument as she finds that only 9% of the world’s plastic is actually recycled. As such, the efficacy of the elimination of straws can be questioned here.

On the other hand, Starbucks has progressively been coming up with new green initiatives throughout its global operations. For example, in South Korea, the company decided to discontinue the distribution of disposable cups in their cafes by 2025 (Lucas, 2021). While they phase out the use of their disposable cups, they plan to introduce a circular cup programme in South Korea, where consumers pay a small deposit for a reusable cup, which they can subsequently return at a kiosk. Upon evaluation, I do feel that this circular cup programme is a plausible way to replace the use of disposable cups as it allows the coffee chain to provide the convenience to customers who are looking to order and go. However, I also believe that there might be negative repercussions to this initiative as some consumers who pay the small deposit may not have an incentive to return back the cup. As such, the reusable cups may not be returned and be disposed off instead, creating more pollution to the environment.

In light of this, I believe once again that it is the onus of the consumer to consume responsibly as there is only so much businesses can do. Ultimately, for corporations to sustain themselves, there needs to be a reasonable amount of revenue generated, of which this revenue is influenced by the ways that corporations are able to feed the consumers demand. Therefore, consumers play a significant role in the environmental pollution created by businesses and producers.

 

References

Caron, C. (2018) ‘Starbucks to Stop Using Disposable Plastic Straws by 2020’, The New York Times, 9 July.

Lucas, A. (2021) ‘Starbucks will discontinue disposable cups in South Korea by 2025’, CNBC. Available at: https://www.cnbc.com/2021/04/06/starbucks-will-discontinue-disposable-cups-in-south-korea-by-2025.html (accessed March 2022).

Mahdawi, A. (2018) ‘Starbucks is banning straws – but is it really a big win for the environment?’, The Guardian, 23 July.

Pollution by Coffee: Coffee, Cups and Pods

 

Welcome back to the 2nd part of this week’s theme on Pollution By Coffee! In the last post, we explored the pollutive effects of coffee bean production through how the increasing demand of coffee has led to unsustainable crop cultivation practices. For this post, we will be examining the retail side of the coffee industry through examining the environmental challenges of two popular coffee retailers, Starbucks and Nespresso.

Starbucks

The most significant environmental challenge for Starbucks is the foundation of their coffee drinking experience – their strong and sturdy disposable cups. In 2017, Starbucks distributed 3.85 billion paper cups for their hot beverages alone (Wiener-Bronner, 2019). While the paper cup may seem like an ideal material to recycle, most recycling facilities do not do so because of the long and inconvenient process that it takes to separate the plastic lining that makes the cup waterproof from the paper cups that may also jam the machines (Wood, 2019). Furthermore, in a bid to eliminate plastic straws in their operations, the newly designed Starbucks plastic lid that includes a protrusion to drink is thicker (Mahdawi, 2018), raising concerns of the environmental repercussions of plastic pollution.

Nespresso

On the other hand, Nespresso is a coffee retailer that markets coffee capsules using aluminium capsule pods. The extraction and processing of the aluminium is an environmental problem as the aluminium industry is highly intensive and releases a significant amount of energy as waste heat (Brough and Jouhara, 2020). The refining of the aluminium also produces hazardous waste from the bauxite ore. Open-pit bauxite mining which is mostly pursued in developing countries has resulted in ecological destruction (Hamann et al., 2014). Therefore, the production of its main product has significant pollutive repercussions to the environment.

The two examples of Starbucks and Nespresso illustrate the environmental pollution effects of coffee. Definitely, the designs of these products stem from the consumer’s demands for convenience and comfortability. As such, it is not entirely fair to solely blame the coffee industry for the environmental pollution produced. As consumers, we need to understand that our perceptions and behaviour shape the way industries operate to fulfil our demands.

 

References

Brough, D. & Jouhara, H. (2020) ‘The aluminium industry: A review on state-of-the-art technologies, environmental impacts and possibilities for waste heat recovery’, International Journal of Thermofluids, 1–2, 100007.

Hamann, L., Luschnat, K., Niemuth, S., Smolarz, P. & Golombek, S. (2014) ‘CSR in the Coffee Industry: Sustainability Issues at Nestlé-Nespresso and Starbucks’, Journal of European Management & Public Affairs Studies.

Mahdawi, A. (2018) ‘Starbucks is banning straws – but is it really a big win for the environment?’, The Guardian, 23 July.

Wiener-Bronner, D. (2019) ‘Forget plastic straws. Starbucks has a cup problem’, , CNN. Available at: https://www.cnn.com/interactive/2019/02/business/starbucks-cup-problem/index.html (accessed March 2022).

Wood, C. (2019) ‘Commentary: The single-use coffee cup is generating a mountain of waste’, CNA. Available at: https://www.channelnewsasia.com/commentary/paper-coffee-cups-heap-mountain-waste-carbon-footprint-1338356 (accessed March 2022).

 

Pollution by Coffee: From The (Bean)ginning

While I was sitting at a Starbucks thinking of what this week’s theme of environmental pollution should be, I smelled a strong whiff of aromatic coffee. At that moment, I realised that I had no idea what went into producing coffee and if there were any environmental repercussions to this coffee production chain.

The coffee production chain is extensive, starting from the production and preparation of coffee plants that produce coffee beans to the retail sector and so on. For this post, I will be focusing solely on bean production and preparation and its environmental implications.

The demand for coffee consumption is gargantuan to say the least. Mahoney et al., (2019) found that college students in the United States alone drank an average of 159mg of caffeine daily, which is an estimated one and a half cups of coffee a day. This massive demand for coffee creates challenges in the supply chain, resulting in unsustainable growing methods that create environmental pollution.

Traditionally, coffee used to be cultivated under a shaded canopy of  trees, providing a resistance against topsoil erosion and thus removing the need for agrochemical fertilisers (Blacksell, 2011). However, to cater to the massive demand for coffee beans, farmers have been incentivised to switch their traditional cultivation methods to under the sun cultivation, where there is a lack of shade for the coffee plants. As such, topsoil erosion occurs and there is a subsequent need for chemical fertilisers.

Furthermore, the switch to sun-grown cultivation means that there is need to clear more arable land, leading to deforestation. For example, within a year, Brazil cleared 13,235 square kilometres of forest to make way for coffee production (Jacob, 2021). This loss of a carbon sink becomes detrimental for the environment as carbon capture by the forests is then released into the air. With poor fertiliser management, excess fertiliser is then polluted into streams and groundwater (United Nations Environment Programme, 2021). The long-term impacts of poor fertiliser management have also shown to increase soil acidification and soil hospitality to nematodes and plant diseases, which in turn reduces soil and fertility, requiring increasing levels of fertiliser to compensate for reduced productivity (United Nations Environment Programme, 2021). This illustrates a cycle of excessive fertiliser use, aggravating the existing environmental pollution caused by initial chemical fertiliser use.

Environmental pollution from coffee bean cultivation is difficult to combat as smallholder producers may not have access to certain information and knowledges, resulting in unnecessarily intensive and costly practices that produce chemical pollution that may travel and transform into aquatic pollution.

The high demand from consumers such as myself for a cup of coffee have created a sleuth of environmental problems in the coffee production chain. Now to throw a question back to you: Do you know how much chemical fertiliser goes into making your cup of coffee?

 

References

Blacksell, G. (2011) ‘How green is your coffee?’, The Guardian, 4 October.

Jacob, C. (2021) ‘Coffee production hurts the planet. Scientists think they may have another way’, CNBC. Available at: https://www.cnbc.com/2021/12/16/climate-change-lab-grown-coffee-and-sustainable-ways-growing-coffee.html (accessed March 2022).

Mahoney, C.R., Giles, G.E., Marriott, B.P., Judelson, D.A., Glickman, E.L., Geiselman, P.J. & Lieberman, H.R. (2019) ‘Intake of caffeine from all sources and reasons for use by college students’, Clinical Nutrition, 38, 668–675.

United Nations Environment Programme (2021) ‘Coffee, environmental degradation and smallholder livelihoods’. Available at: http://www.unep.org/resources/newsletter/coffee-environmental-degradation-and-smallholder-livelihoods (accessed March 2022).

 

 

The Land of Electronics: Government Policies

On this last post of “The Land of Electronics”, I will be examining what Nigeria’s government has done to control and regulate the challenge of electronic waste in the informal sector.

In 1988, the exportation of hazardous wastes to developing countries garnered global attention after 3,800 tonnes of toxic wastes were found to be dumped in a dirt lot in Koko, Nigeria, as a deal arranged by an Italian waste trader (Liu, 1992). In response to this incident, the Nigerian Government has subsequently enacted the ‘Harmful Wastes Decree’, which provides a legal framework to regulate the disposal of toxic and hazardous waste into the environment of Nigeria, creating the Federal Environment Protection Agency (FEPA) in the process (Ideho, 2012). Under their National Policy on Environment, Nigeria further states that appropriate agencies are responsible to set up a regional framework and standard to combat against the transboundary movement of hazardous waste, which electronic waste falls under (Ideho, 2012).

However, there are certain significant limitations to this policy that reduce its effectiveness in managing the environmental pollution of electronic waste. Firstly, the hazardous electronic wastes imported into Nigeria are often imported under the ‘guise’ of them being second-hand goods. Furthermore, Amechi and Oni (2019) has found that these ‘second-hand goods’ are brought into Nigeria through used vehicles, of which are not subjected to inspection and control by regulatory agencies as compared to import routes through containers.

Most significantly, the challenge with ridding the country of the  hazardous and polluting electronic wastes derives from the fact that much of the informal Nigerian community depends on the transnational trade of e-waste for their livelihoods. For example, it was found that the formal refurbishing sector in Nigeria provided income to more than 30,000 people (Amechi and Oni, 2019). This suggests that the illegal importation of electronic waste has provided even more jobs for those operating in the informal sectors. Through the importation of these e-wastes, trades such as dismantling, repairing and refurbishing emerge as new opportunities for settlers that are unable to find formal employment.

In hindsight, the challenges of managing electronic waste are more complicated than perceived due to the conflicting socioeconomic benefits that electronic waste trade provides. Furthermore, it can be observed that policies can only do so much to regulate the on-the-ground realities of waste regulation. Through these observations, I believe that in order to truly curb the environmental pollution in these marginalised countries, the accountability lies in the hand of the consumers that make the decision to consume such products and services.

References

Amechi, E.P. & Oni, B.A. (2019) ‘Import of Electronic Waste into Nigeria: the Imperative of a Regulatory Policy Shift’, Chinese Journal of Environmental Law, 3, 141–166.

Ideho, B.A. (2012) E-Waste Management: A Case Study of Lagos State, Nigeria, Master’s Thesis. University of Jyväskylä .

Liu, S. (1992) ‘The Koko Incident: Developing International Norms for the Transboundary Movement of Hazardous Waste’, Journal of Natural Resources & Environmental Law, 8.

The Land of Electronics: Nigeria

In my previous post, I touched on how the disposal of electronic waste has very damaging effects on certain marginalised communities in the world, emphasising the environmental injustice of environmental pollution. Today, I would like to examine the impacts of electronic waste disposal and the subsequent socio-economic impacts of Nigeria.

Nigeria is a major destination of electronic waste, importing over 60,000 tonnes of used electronics and electrical equipment via the ports of Lagos alone (Galan, 2019). After sifting through the electronics and dumping those which are unusable, individuals in the informal sector in Nigeria are then tasked to collect and dismantle the electronics by hand to extract out the sellable components. Many of these dismantlers have reported injuries on their hands and feet from the sharp waste fractions, as well as an inhalation of the cadmium-containing internal phosphorous that is released as dust upon dismantling (Manhart et al., 2011).

The remnants of the e-waste that are deemed unusable are burnt, where ‘over 52,000 tonnes of brominated (flame retardant) plastics, 4,000 tonnes of lead, 80 tonnes of cadmium and 0.3 tonnes of mercury are burned or dumped in Nigeria every year’ (Galan, 2019). Furthermore, the highly acidic pH of 3.4 observed in some water bodies of the industrialised areas of Lagos may accelerate the dissolution and mobility of heavy metals from disposed waste items  toward water bodies used for domestic purposes (Nnorom & Odeyingbo, 2020), creating toxic and hazardous water bodies that endanger the locals who depend on these water bodies for water and sanitation purposes.

The adverse health impacts illustrate the negative social implications that e-waste has on the local community in Nigeria. The unfortunate paradox to this is that the locals are highly dependent on the informal electronic waste sector for their income. As such, this forces them to choose between their health or their income, of which the lack of awareness to these health implications would lead them to choose the latter. The extreme injustice observed here where these communities are systematically coerced into a “suffer now or suffer later” situation highlights the marginalisation of certain communities through environmental pollution, of which consumers hardly see the entirety of the implications of their consumption.

References

Galan, I. (2019) ‘Dark skies, bright future: overcoming Nigeria’s e-waste epidemic’, UNEP. Available at: http://www.unep.org/news-and-stories/story/dark-skies-bright-future-overcoming-nigerias-e-waste-epidemic (accessed February 2022).

Manhart, A., Osibanjo, O., Aderinto, A. & Prakash, S. (2011) Informal e-waste management in Lagos, Nigeria – socio-economic impacts and feasibility of international recycling co-operations , Institute For Applied Ecology.

Nnorom, I.C. & Odeyingbo, O.A. (2020) ‘Electronic waste management practices in Nigeria’, in Handbook of Electronic Waste Management, Elsevier, 323–354.

The Land of Electronics

When I was younger, I had always thought that I was doing the environment a favour as I was saving dozens of trees by using my computer to take notes when I study. Evidently to me, there was a direct relationship between the existence of my computer to the declining usage of paper sheets and paper notebooks. I was definitely saving the world. Right?

Unbeknownst to my naive younger self, I had not heard of electronic pollution. So what is electronic waste pollution?

Electronic waste pollution occurs when electronic waste is dumped in landfills. The marginalisation of pollution effects can be significantly observed here as about 80% of e-waste from developed countries have been and is still continuing to be illegally exported to developing countries such as Nigeria, Ghana and Pakistan (Awasthi, 2015). This suggests that many of the electronics that we have bought, used and eventually ignorantly discarded may have had ended up in landfills in one of the above-mentioned countries.

As these electronic waste often contain hazardous substances such as Copper, Lead, Tin, and Nickel (Adesokan et al., 2016), the disposal of these types of waste become extremely problematic when the toxins from the electronics enter the soil. In a study done on the soil pollution caused by e-waste in Nigeria by Adesokan et al., (2016), it was found that Nigeria receives an estimate of around 40,000 tonnes of e-waste every month, of which, much of these waste are then subjected to environmentally unsound scavenging methods such as the unprotected acid leaching of Printed Wiring Boards (PWBs) and the unprotected dismantling and burning of the electronics to recover precious metals by the informal sector. Through this, the toxins from the burnt metals are released into the soil, air and water from surface runoff (Ahmed, 2016), creating an extremely toxic environment for the informal settlers near these landfills. Song and Li (2015) further found that there were ‘increases in spontaneous abortions, stillbirths, premature births, reduced birth weights and infant lengths in pregnant women exposed to heavy metals from e-waste sites’, illustrating the harmful health implications of e-waste pollution.

Definitely, we as consumers don’t think too much about what happens to our personal items once they’re discarded. Just imagine the number of times we have discarded a perfectly functional phone or laptop because of our consumer mindset to replace it with the next new best model. The idea of using laptops or smartphones as “green” was truly such a misguided opinion, of which consumers like myself should be more accountable for.

Subsequently, the following few posts will go more in-depth into how the challenge of e-waste affect the marginalised groups more significantly and how these groups are handling these environmental challenges.

 

References

Adesokan, M.D., Adie, G.U. & Osibanjo, O. (2016) ‘Soil Pollution by Toxic Metals near E-waste Recycling Operations in Ibadan, Nigeria’, Journal of Health & Pollution, 6, 26–33.

Ahmed, S.F. (2016) ‘The Global Cost of Electronic Waste’, The Atlantic. Available at: https://www.theatlantic.com/technology/archive/2016/09/the-global-cost-of-electronic-waste/502019/ (accessed February 2022).

Awasthi, A.K., Zeng, X. & Li, J. (2016) ‘Environmental pollution of electronic waste recycling in India: A critical review’, Environmental Pollution, 211, 259–270.

Song, Q. & Li, J. (2015) ‘A review on human health consequences of metals exposure to e-waste in China’, Environmental Pollution, 196, 450–461.