text: Posted bycircularafrica June 25, 2021 July 1, 2021 Posted inUncategorized
  The world's most expensive fertilizers are sold in Africa: What needs to change?
  Published in the Exchange, leading investment magazine in East Africa.
  Africa remains one of the most vulnerable regions in regards to food security1, and is under great pressure to solve the increasing need for food due to an explosive population growth2. Despite that one out of four undernourished people globally is coming from Africa3, Sub-Saharan Africa (SSA) is paying the highest price for fertilizers in the world4. The costs of fertilizers in SSA are roughly four times higher than in Europe, and the food security of African nations is greatly dependent on imported fertilizers4. Even more concerning, the global price of fertilizers has been increasing during the crisis, such as the global food crisis affecting Africa5 – and even during the pandemic6. How is it possible that the world's most expensive fertilizers are sold in Sub-Saharan Africa, while the continent is suffering to feed their people? What needs to change?
  No local production of fertilizers
  The mineral fertilizer industry is highly concentrated in a few countries that control most of the production for phosphate, nitrogen and potash fertilizers, which are produced with raw material that are not available worldwide. At this moment, only five countries control more than half of the worlds production for urea (nitrogen-based fertilizers), potash and NPK (complex fertilizers), and MAP/DAP (phosphate-based fertilizer) due to the geographic availability of raw materials4. For example, for potash fertilizers, the leading nations produce more than 77% of the global production in 2008/2009, whereby only Canada and Russia are responsible for more than half of the capacity4 (figure 1). On top of that, some of these raw materials that are globally used are finite resources, such as phosphate. The scarcity of resources, will not only result in higher fertilizers costs but also threatening food production, supply and political stability7. One of the biggest reserves of phosphate is in China, which has only 24 years left at the current production rates8 without considering the needs to feed the increasing global population.
  Unfortunately, African countries do not play a significant role in the production of these fertilizers. As a result, those African countries are greatly dependent on these imported inputs that are promoted by their governments to increase agricultural production and to feed their people. Only in Rwanda, about 44.000 metric tonnes of fertilizers are imported in 20129. Currently, local governments need to subsidize these inputs to compensate the costs for farmers. In some African nations, the costs of fertilizer subsidies account for up to 70% of the financial resources that are allocated for the national agriculture budget10. It is even more concerning, that the global price of fertilizers increased further in situations such as the food crisis in 20085, and pandemic6, affecting African countries. This creates a damaging effect on food security and poverty in Sub-Saharan Africa 5,11.
  Also, it is questionable what happens with the small-scale farmers that are depending on the government subsidies, once the governments decide to stop with the subsidies. Mineral fertilizers are known to increase agricultural production in tropical countries in the short term, however, these fertilizers fail to improve soil fertility and health in the long-run10. Some farmers in SSA already apply mineral fertilizers out of fear, since they know that without mineral fertilizers, their production will drop significantly, which makes farming with these imported inputs not sustainable in the long term.
  Figure 1. Distribution of the world's fertilizer capacity per country (source: IFDC, 2009)4.
  In sum, the distribution of imported fertilizers to African nations creates a great dependency on inputs that are made from finite raw materials with the risks to threaten the food security of SSA further. What needs to change to make farming in SSA more sustainable?
  Solution 1. Produce fertilizers locally by utilizing local opportunities
  As stressed earlier, mineral fertilizers are known to improve productivity in the short term but fail to improve soil fertility in the long term10. There are already cases, whereby farmers apply acid-forming fertilizers, such as DAP, to already acidified soils16. The application of incorrect fertilizers has resulted in a declining production and diminished resilience of the soil to produce sustainably 16, 17, 18. Also, the high costs of farm inputs to cope with acid infertility soils remain a great challenge for small scale farmers with limited financial resources in SSA16.
  At the same time, there are local opportunities that are not optimally utilized. For instance, waste accumulation in African cities are an increasing problem for safety, health, and contribute to emissions that are accelerating climate change (table 1). In the African region, about 57% of total waste is organic waste12, which can be turned into high-quality organic fertilizers and farming inputs. This is a win-win situation for the farmers (farm inputs), but also the city, and the city dwellers (healthier, cleaner and safer city). Concerning the fact, the urban populations in Africa are projected to triple from 470 million in 2015 to 1.2 billion by 205013, SSA is expected to be the world's fastest-growing region for waste by 205014.
  This is a great business opportunity for local companies to transform organic waste into farming inputs through a circular economy approach. Furthermore, organic fertilizers help to reduce mineral fertilizer use, and improve the soil health incrementality rather than depleting the soil over time. Also, other sustainable farming practices at the farm level can help improve soil fertility, such as crop rotation, intercropping, cover crops, agroforestry, mulching, and mixed farm systems.
  City Urban population ** Waste generation per capita in 2020 (kg/cap/day) * Estimated kg waste generated per day in 2020
  Kampala, Uganda 3,298,000 0.561 1,850,178
  Nairobi, Kenya 4,735,000 1.044 4,943,340
  Dar es Salaam, Tanzania 6,702,000 1.761 11,802,222
  *source: Aryampa et al., 2019
  **source: Population Stat, 2021
  Solution 2. Change the policies
  As stressed earlier, the current policies are heavily promoting imported mineral fertilizers by providing subsidies to increase food security in the short term. However, in most cases, policies do not promote sustainable farming practices and inputs to the same extend. For instance, organic fertilizers and environmentally friendly farm inputs are not subsidized through the local governments, which makes it difficult for farmers to shift to more sustainable farming. Especially since the imported fertilizers through subsidy programmes will compete with the locally produced fertilizers. Therefore, the introduction of subsidies for organic fertilizers and organic inputs produced locally might help introduce farmers to more sustainable farming practices. Also, it could help to create a greater market demand for organic fertilizers and inputs that are produced locally, which benefits local companies and provide new income opportunities.
  Also, governments are still lacking behind to ensure waste management and separation. Currently, most of the waste in East Africa is not sustainable landfilled or even dumped while only a small part is recycled15. This is a challenge for companies that are producing organic fertilizers and farming inputs to ensure sufficient quantities of organic waste that are separated at the source. The government plays a key role to establish appropriate waste management and separation infrastructure at source, which helps to unlock business opportunities for companies and farmers. Despite that there is more attention to the challenges of the current waste management infrastructure, more support is needed from governments, investors and development cooperation to put into practice.
  Solution 3. Invest in research and pilot projects on environmentally friendly farming inputs & technologies
  Not only policy challenges are essential, but also research and pilot projects take a significant role. There is still limited research conducted on the impact of organic fertilizers on productivity in the local circumstances, and how these farming practices can be improved to optimize the yield. The research agenda seems to have a much stronger focus on conventional farming in Africa19, which is a missed opportunity to take away the myths around organic fertilizers and inputs. Stakeholders might be more hesitant to shift due to the lack of information, knowledge and they might give up when they experience challenges especially during the transition phase. Also, researchers, play a significant role to come up with innovative solutions through testing environmentally friendly inputs and farming practices, on how to cope with the local challenges – with the aim to improve the livelihood of farmers in the long term.
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