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Assessment of Fertilizer Distribution Systems andOpportunities for Developing Fertilizer BlendsETHIOPIAJune 2018Executed by:International Fertilizer Development Center

This assessment was conducted by the International Fertilizer Development Center (IFDC)and the African Fertilizer and Agribusiness Partnership (AFAP) for the Alliance for a GreenRevolution in Africa (AGRA) as part of a consultancy for Assessment of FertilizerDistribution Systems and Opportunities for Developing Fertilizer Blends. The views,information, and opinions expressed in this assessment are those of IFDC and AFAP and donot necessarily reflect the official policy or position of AGRA.

Table of ContentsAcronyms & Abbreviations . 1Introduction . 2Available Soil Information . 2Rationale for Why Available Fertilizer Products Were Developed . 2Types of Fertilizer Recommendations that are Available, and Their Suitability for StapleCrops and Agro-Ecological Zones that are Targeted by AGRA . 4Gaps that Need to be Addressed to Come Up with Area and Crop Specific Blends . 6Fertilizer Companies and/or SME Blenders Existing in the Country and the GeographiesTargeted by AGRA . 7Inventory of Partners and Ongoing Efforts or Investments that are Promoting the Availabilityof Appropriate Blended Fertilizers that AGRA can Leverage in the Target Countries. 7Bottlenecks in Fertilizer Distribution Systems, and Interventions that AGRA and Its Partnerscan Implement to Help Farmers Access Quality Fertilizers . 7Market Characteristics . 7Supply Side Constraints for Blended Fertilizer . 10Demand Side Constraints . 11Potential AGRA Activities in Building the Distribution System . 11Policy Bottlenecks that are Affecting the Availability of Blended Fertilizers, andInterventions that AGRA and Its Partners could Design and Advocate for Implementation toHelp Farmers Access Appropriate Blends . 12Recommendations and Interventions that AGRA could Implement to Address the Availabilityof Quality Fertilizers . 13Appendix I. Potential Partners and Key Country Contacts in Ethiopia . 16Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopiai

Acronyms & rican Fertilizer and Agribusiness PartnershipAgricultural Growth ProgramAlliance for a Green Revolution in AfricaAgribusiness Market DevelopmentAgricultural Transformation AgencyboronCapacity Building for Scaling up of Evidence-based Best Practicesin Agricultural Production ProgrammeInternational Maize and Wheat Improvement CenterConseil National de Lutte contre le SIDAdi-ammonium phosphateEthiopian Agricultural Businesses CorporationEthiopian Institute of Agricultural ResearchEthiopian Soil Information SystemDeutsche Gesellschaft für Internationale ZusammenarbeithectareIsrael Chemicals LtdWorld Agroforestry CenterInternational Fertilizer Development CenterInput Tracking SystemInput Voucher SalespotassiumMetals and Engineering CorporationMinistry of Agriculture and Natural Resourcesmuriate of potashmetric tonnitrogennon governmental organizationNew Markets Labnitrogen phosphorus sulfurOffice Chérifien des PhosphatesOptimizing Fertilizer Recommendations in AfricaphosphorusRegional Bureau of AgricultureSouthern Nations, Nationalities and Peoples’ RegionSulfate of potashsub-Saharan AfricaTriple super phosphateUnited States Agency for International DevelopmentAssessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia1

Assessment of Fertilizer Distribution andOpportunities for Developing FertilizerBlends in EthiopiaIntroductionIn the performance of this assessment, we conducted interviews with key informants inEthiopia, including representatives of the Agricultural Transformation Agency (ATA)including soil scientists, agronomists, the EthioSIS mapping team, and the TransformationAgenda Specialist; OCP agronomists and business project managers, representatives of GIZ,the Africa Rising (CIMMYT) project, and IPNI; and representatives of the EthiopiaAgricultural Research Institute. We reviewed documents from OFRA and communicatedwith the OFRA head in Ethiopia regarding specifics of implementation. We also reviewedliterature relating to teff agronomy and fertilizer response in Ethiopia, and documents fromthe Africa Rising project in Ethiopia.Available Soil InformationSoils in Ethiopia have been mapped in considerable detail using spectral methodologies, withnutrient concentrations calibrated with the Mehlich-3 method for P, K, Ca, Mg, S, Zn, B, Cu,Mn, and Fe. This work began under the Agricultural Transformation Agency (ATA) projectand continued under EthioSIS. Soil fertility status and fertilizer recommendation atlases arecompleted for the regions of Amhara, SNNPR, Tigray, Harari and Dire DawaAdministration. Work is ongoing for Oromia region (soil fertility status and fertilizerrecommendation atlas/ map production). Benishangul-Gumuz, Gambella, Afar and EthioSomali regions’ atlas/map production are remaining.Rationale for Why Available Fertilizer Products WereDevelopedThe fertilizers available in Ethiopia (Table 1) came about through a rather convolutedprocess. Based on the maps, Ethiopia came up with multiple fertilizer formulations basedstrictly on the mapping results. These were eventually narrowed to 7 formulations meant tocover the majority of Ethiopian soils. No trial work was done to validate these formulations,which were based strictly on the spectral data, and under the assumption that the analysesobtained therefrom were diagnostically correct, rather than indicative of response. The errorin this assumption was further compounded by using the same deficiency criteria for allcereal crops; this is clearly not the case for maize and wheat, and the criteria for teff have notyet been developed.Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia2

Table 1.Fertilizers available in Ethiopia and volumes sold for the 2016-17season, based on distributionFertilizer FormulationNP 19 38 0 7SNP 18.9 37.7 0 6.95S 0.1BNP 17.7 35.5 0 7.6S 2.2ZnNP 17.8:35.7 7.7S 2.2Zn 0.1BDAP NP 18:46:046:0:00:0:60TOTALDescriptionNPSNPS with added BNPS with added ZnNPS with added Zn and BDAPUreaKCl or MOPVolume Sold (MT)2016-17 838Omission trials conducted under the AMDe project (funded by USAID and designed byIFDC) showed that in wheat, response was often obtained to S, Zn, B, and Cu where strictinterpretation of the soil analysis was not indicated. The implication is that using what areconsidered critical levels could be misleading regarding actual response, and that yieldpotential loss would result if soil analysis is used as a strict guide to address deficiencies, atleast using the deficiency criteria employed. One reason more research was not carried outwas poor funding and technical support for the Ethiopian Institute of Agricultural Research(EIAR). EIAR is mandated to conduct this research, which could not be done by ATA due toinstitutional mandates.ATA did, however, evaluate 2 blended formulations and NPS 19:38:0 7S at thousands ofsites. The blends did well relative to DAP, though applied at twice the rate, as they containedK, S, and other micronutrients; thus, rates were doubled to maintain P equivalence. Blendingwas initiated at a facility run by a farmer’s cooperative, as private operation of blendingfacilities was not permitted by the government. Some errors ensued, probably the mostserious of which was the procurement of 10,000,000 worth of a boron (B) product of thewrong particle size, causing serious segregation in the bags, the result of which was no boronat the top of the bag and likely toxic quantities at the bottom. Because distribution channelswere not well-established (now having to go through a blending unit rather than throughalready channels established for DAP and urea), the blends were reaching few farmers.To deal with this situation, the government formulated and procured 4 multi-nutrientcompounds (shown in Table 1), and these were distributed based strictly on mapping units.All are NPS-based; that is, there are no compounds available in Ethiopia that do not containS. Sulfur, being a secondary nutrient, displaces about 20% of the fertilizer P in comparison toDAP; this effectively means that to maintain the P application compared to DAP, rates mustbe increased by 20%.Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia3

Types of Fertilizer Recommendations that are Available,and Their Suitability for Staple Crops and Agro-EcologicalZones that are Targeted by AGRATable 2 shows the nutrients extracted for given yield targets we believe routinely achievablefor AGRA priority crops in Ethiopia, along with nutrients supplied in government andfertilizer company offerings.We heard several accounts that the new compounds are performing under expectationsrelative to DAP in initial evaluations, though these accounts are not firm data. We also hadreports that some farmer cooperatives wanted DAP back. This seems to be because the sameapplication rates are being advised for the new compounds as for DAP (100 kg/ha). As thetable shows, these rates will necessarily lead to lower and sub-optimal P application. We arealso not clear that this is well-understood in the Ethiopian agricultural community. In order toevaluate the effects of S and other micronutrients and for farmers to receive their full benefit,their addition cannot be at the expense of P. A clear understanding needs to be developed andcommunicated that when additional nutrients are added to formulations, somewhat higheroverall application rates are required to realize their benefits.Generally speaking, this amounts to 125 kg of NPS-based compounds per 100 kg of DAP (asshown in Table 2). The original DAP/urea application recommendation of 100 kg of eachbasically amounts to 2 bags of each; while a simple recommendation to understand, it doesnot provide sufficient P relative to other nutrients when applied to the new compounds. Ourbest estimate is that it would require 125 kg/ha of any of the basal formulations and 150kg/ha of topdress urea to offset nutrient uptake of yields of 5 MT//ha of either maize or wheator 4 MT/ha of sorghum.Table 2.Nutrients extracted for given yield targets and nutrients supplied ingovernment recommendations for AGRA priority -1Appl. rate (kg ha )Basal Top dressGovernment recommendations at DAP rateNP 19 38 0 7SNP 18.9 37.7 0 6.95S 0.1BNP 17.7 35.5 0 7.6S 2.2ZnNP 17.8:35.7 7.7S 2.2Zn 0.1B100125 DAP100100100100100100100100100100Balanced for N and P (Maize, sorghum, wheat)NP 19 38 0 7SNP 18.9 37.7 0 6.95S 0.1BNP 17.7 35.5 0 7.6S 2.2ZnNP 17.8:35.7 7.7S 2.2Zn 0.1BAdditional KClP2 O5 K2OCaMgSZnBCuMnFe-----------------Nutrients removed in crop and residue, kg ha-1--------------100461211321130.23 0.24 0.07 0.73 0.3615553124823200.43 0.12 0.07 0.57 0.92Unknown, tentatively assumed to be similar to wheat12041861411140.13?0.02 0.11?962780631570.10 0.10 0.01 0.16 0.07(urea)Previous reccommendation ---Nutrients supplied in recommendation, kg ha rients supplied in recommendation, kg 4000102.800009145000102.8 0.130003060Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia4

We learned that farmers in areas with high potential may apply up to 300 kg/ha of the basalformulations, while poorer farmers apply less or no fertilizer (one estimate is that 40% offarmers do not use fertilizer, with accessibility, package size and lack of credit being majorconstraints). Our sense of the new compounds is that they have too much Zn in them, whichcan in a few years result in excess Zn accumulation in the soil. It is also expensive andwasteful. In compounds, 0.5-0.8% Zn is usually adequate, since the Zn is well-distributed. Inblends, rates of 1 to 1.5 kg Zn per ha may be more beneficial because the Zn sulfate granulesare poorly distributed. This is less a problem for maize, where fertilizer is concentrated nearthe plant, than for crops such as wheat and teff, where fertilizers are broadcast.Regarding the B rate, it may be too low to maintain B, given crop removal levels, and maynot be giving optimal response. One cannot assume 100% B use efficiency, as it is asomewhat mobile nutrient, subject to leaching.No fertilizers have potassium. Potassium is available as KCl, which can be applied separatelyat basal application. There is some logic behind not including it in any blends. Potassium isnot required everywhere, and thus far, response to K has shown to be difficult to predict:Some farms are responsive, and some farms not, and that response seems to be difficult topredict by region or by crop, soil maps notwithstanding. This may be due to inherent farmlevel variability. If it were in blends, it would add substantially to the rate of fertilizer thatneeds to be applied. Nevertheless, K response has been demonstrated on a number of AGRApriority crops—particularly wheat, beans, maize, and teff; it is only that the response has notbeen sufficiently consistent or predictable to include it in a blend.There is no specific bean formulation, and we were told that it is not a government priority;farmers are relying on residual fertilizer from their cereals fertilization for most legumes,including beans. The current fertilizers could reasonably meet N, P, S, Zn, and B demands ofbeans if applied at 50-100 kg/ha, and like cereals may benefit from KCl. Inoculation withrhizobia should be encouraged to supply N. Beans would certainly benefit from lime in acidicregions, as they are sensitive to both Ca deficiency and aluminum toxicity at low soil pHvalues.Teff is a more complicated crop for several reasons and needs some research. Yields of newteff varieties have achieved yields of up to 3.6 MT/ha in isolated field experiments, but nosystematic omission trials have been done. In one innovative experiment, yields of aremarkable 8.8 MT/ha were achieved, but with some practical constraints: the heads were soheavy that plants had to be supported with ropes to prevent lodging losses. Plant spacing wasa major factor in attaining high yields in that experiment and was achieved by transplantingto a 20 x 20 cm pattern, also a major practical labor constraint. In that same experiment,response to Zn and Cu were noted; from other experiments, response to S and K can beinferred. The main constraint to increased teff yields seems to be genetic: the plant cannotsupport heavy heads, and hence lodges. Some efforts have been made to breed short-statureteff to reduce lodging but have yet to be finalized. While a short-stature variety was achieved,it was rejected due to the number of tillers; however, this may not be a constraint in a line- orpocket-planting arrangement, as in such an arrangement, tillering is still far above thatachieved with broadcasting, the traditional way of teff planting. The high yield potentialsuggests that both agronomic work around plant spacing and breeding work to achievestockier plants could drive teff yields higher. Using varieties that exist, a well-designedomission trial could provide vital information on maximizing fertilizer response to teff.Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia5

Gaps that Need to be Addressed to Come Up with Area andCrop Specific BlendsThe most serious constraint to area- and crop-specific formulations is that, due to the historyof how the current compounds came to the market, they have never been properly validated,and it is very possible that they are not being properly targeted. We are particularlyconcerned about the low threshold for soil Zn ( 1.5 ppm) that was applied for targeting Zncontaining fertilizers. Experimentation on wheat (Ethiopia) indicated profitable andsignificant response to Zn when soil Zn levels as high as 25 ppm. Yet, Zn is only in 11% ofthe NPS-based fertilizers being sold to farmers (calculated from Table 1). Targeting is basedon strict map interpretation, with usually only 2 blends available for farmers to choose from.Lack of Zn resulted in significant wheat yield loss in IFDC trials. In SNNPR, the regionwhere highest soil Zn levels were recorded, omission of Zn (costing about 4/ha) nonethelessresulted in average loss of wheat of 800 kg/ha, valued at 188/ha. This low threshold mightalso affect maize, sorghum, and teff.The consumption of K fertilizers in Ethiopia is the lowest in Africa relative to N and P, inspite of the fact that KCl is available to farmers. Yet, K response has been observed in anumber of crops in Ethiopia. A serious gap exists in predicting where K will respond, and onwhich crop.We received some initial feedback regarding validation work being undertaken by EIAR thatin some locations, new blends were under-performing DAP—this is similar to farmerfeedback and a cause for concern. There may be several reasons for this:1. If validation work is undertaken using the same rates for DAP and the blends, then the Pbeing applied in the blends will be less than the P applied in the DAP. This may reflect alack of understanding of the fact that because the new fertilizers have additional nutrientsin them, they must be applied at a slightly higher rate to get the added benefits of thesecondary and micronutrients in them.2. The B concentration in those blends that contain B may be too low to induce optimalresponse.3. The blends are poorly targeted. Blends are targeted based on the EthioSIS maps andassumed critical values; the critical values chosen are the same for all crops. It is possiblethat Zn and B are not being applied where they should be, and some evidence exists tosupport this from IFDC trials with wheat and maize. Critical values to target need to bevalidated rather than assumed to be an absolute guide.In severely acidic soils (primarily in western Ethiopia), addressing acidity constraints isimportant. Blends will be only marginally effective where soil acidity constraints limitfertilizer response. Based on Ethiosis current spatial prediction of soil fertility status(preliminary), nearly 25% of Ethiopian crop lands are acidic (pH 5.5). Identified limesources in Ethiopia are calcitic, and will not address magnesium (Mg) deficiencies whichbecome more prevalent in low pH soils. Probably the least expensive way to address Mgdeficiencies is with foliar applications.Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia6

Fertilizer Companies and/or SME Blenders Existing in theCountry and the Geographies Targeted by AGRAFive blending plants exist in Ethiopia that are well-equipped to produce blends. However, forpractical purposes, they are not engaged in blending and distributing fertilizers forsmallholders for reasons mentioned above. Our understanding is that arrangements are beingmade between OCP and the government of Ethiopia to operationalize these blenders, but thatthe current strategy centers around using blends to supply farmers in close proximity to theplants. We calculate that these 5 blenders, operating 8 hours per day and 150 days per year,could blend 300,000 MT annually. The current demand (excluding NPS, which does not needto be blended) is 450,000 MT. Fertilizer demand is expected to almost double by 2020.Inventory of Partners and Ongoing Efforts or Investmentsthat are Promoting the Availability of Appropriate BlendedFertilizers that AGRA can Leverage in the Target CountriesA list of potential partners and key country contacts is in Appendix I.Bottlenecks in Fertilizer Distribution Systems, andInterventions that AGRA and Its Partners can Implement toHelp Farmers Access Quality FertilizersThe fertilizer market structure and SWOT analysis of the market are shown in Figures 1 and2 respectively.Market CharacteristicsThe Ethiopian Fertilizer market is characterized by strong growth, with volumes increasingfrom 350k tons in 2004 to 1.1 million tons in 2017 and forecast to grow to 2 million tons by2020 (GPT2 forecast). The developed market from 2 products (DAP and urea) in 2012 to 11in 2017.The Ethiopian Government puts strong focus on the fertilizer sector, which includesrecognition of soil acidity constraints a liming program to rectify them. Ethiopia led thedevelopment in soil-specific fertilizers (targeted to cereals) beginning in 2014. Operationaland capacity issues within government institutions and poor interactions between theminitially led to weaknesses in the blended fertilizer value chain, including challenges iningredients procurement, distribution of blended product, and research support. Adjustmentswere quickly made, which led to an agreement with OCP to manufacture and import 4 NPSbased compounds, containing various combinations of Zn and B to address combinations ofdeficiencies identified from soil analysis and verified to a degree by fertilizer response trials.This led to a surge in NPS-based (no K) products from 2015, which now have completelyreplaced DAP, as per Government policy. Potassium (K) is provided separately to farmers,who can supplement the granular fertilizers according to perceived need. Fertilizer choice islimited at individual distribution points and is based on interpretation of soil spectral maps.Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia7

ETHIOPIA FERTILIZER DISTRIBUTION SYSTEMInternational Fertilizer Market1,164kt460kt urea 704kt Ammonium PhosphatesApparent ConsumptionEthiopia E2014Co-operative ulkPlantationPrimary CoopBulk AnchorBulkGovernmentFarmerPrivate1,164,000Figure 1.Ethiopian fertilizer distribution, system, apparent fertilizer consumption, and distribution volumes throughwww.afap-partnership.orgvarious fertilizer systemsAssessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia8

VALUE CHAIN SWOT SUMMARY – ETHIOPIAStrengthsManufacturer Strong international interest bymultiple partiesWeaknesses High logistical cost for Potash from the Danokilmay prevent developmentOpportunities Importer EABC Sole importer, low cost build upRelationship with the internationalfertilizer communityStrong Government relationshipsGood relationships with wholesalers Blender5 Blending PlantsSignificant soil mapping doneStrong support from OCP withcompounds Distributor Broad distribution network of PrimarycoopsLow cost operations Port restrictions, trucking restrictions, meaning12 month imports—high working capitalSingle price point for yearNo capacity or incentive in the distributionchainSignificant drain on Forex. Restricted access toprivate importers Blending plants not operational. OCPdiscussing proposal to operate—need changeto regulationsLack of operational capacity of blending plants.Lack of technical knowledge of soils, blendsand blender managementPoor coordination betweenresearch/extension departments—limitedvalidationConstrained by centralised decisions Product knowledgeGovernance (management systems andcapacity) ThreatsBoth Yara and ex ICL(released rights) have SOP/MOPdeposits in the Danokil depression. These are beingevaluated currently, Opportunity for export anddomestic use.OCP evaluating a 2.5 Mill ton NPK complex at Dire DawaYalu (Metec) urea plant suspended New Prime Minister who has questioned some of thecontrols in the distribution systemApproval of the Draft Fertilizer Proclamation as outlinedin the ‘legal Guide to strengthen the Ethiopian Fertilizermarket”Explore finance opportunities Specialty blends to improve productivity with theintroduction of micro-nutrients—build range, validateformulationsBuild capacity/training in fertilizer technologies, plantoperations (commercial and technical), fertilizer qualityand farm advisors.Draft Fertilizer proclamation allow expert participationin the fertilizer space Operational efficiencies in blending plantscannot be achievedFarmer financeRetail (last mile) development –demand creationFarmer education Crop specific blending will shorten thedistribution chain Government policy regards private sectorparticipation and protectionGas availability from Ogaden basin doesn’tmaterializeGovernment failure to adopt new FertilizerproclamationForex scarcity or controlKey Takeaways:1.Ethiopia fertilizer demand has increased rapidly to 1.1Mill ton in line with GTP2 targets, placing pressure on forex availability.2.The development of the blending industry has stalled because of capacity constraints in all sectors of the value chain(product knowledge, technological requirements, validation of formulations, blenderoperations and farmer demand creation, disjointed approach between partners)3.OCP Government to Government agreement have assisted in alleviating many of the constraints and building confidence in private sector assistance. Providing compounds that address a number of thenutrient deficiencies, terms to assist, develop local manufacture capacity, propose to manage blending plants. Has made it difficult for multiple partners to develop e 2.SWOT analysis of the Ethiopian fertilizer value chainAssessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia9

The arrangement with OCP is ground-breaking, and a good example of technology andproduct change that has occurred to satisfy a market need. Prior to the Ethiopian need, fewinternational phosphate manufacturers manufactured ammonium phosphates with sulfur andmicronutrients. Currently most of the major manufacturers manufacture these products. Thesupply chain is public sector controlled through a number of government institutions (Figure3).Figure 3.Ethiopian Fertilizer Institutional framework. (Source “A Review ofNational Fertilizer Regulatory Authorities in Ethiopia” –USAID,AGRA, NML AFAP 2016)There are a number of inefficiencies in the overall fertilizer supply chain that will likelyimpact on balanced fertilizer products simply because they are part of the product mix. Thesewill likely be exaggerated as the growth targets in AGP2 increase. They include high carryover of stock, freight inefficiencies associated with a 12 month import cycle, logisticalconstraints and inefficiencies associated with low compensation paid for activities undertakenby cooperatives. These need deeper evaluation as part of developing a country roadmap.Supply Side Constraints for Blended FertilizerIn Ethiopia limited volumes of blends are available, because plants are not operating, asoutlined above. This should not be construed as a lack of availability of multi-nutrientfertilizers, which are supplied as 4 compounds which can be combined with K by farmers toform 8 multi-nutrient combinations. It should be noted, however, that few farmers purchaseK (supplied as KCl) despite its availability, and on a per-nutrient basis, Ethiopia is the lowestAssessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia10

K consumer in sub-Saharan Africa. Targeting K application to achieve response is achallenge.Previous government estimates were that up to 18 blending plants would be required tosupply Ethiopia’s markets efficiently. However, the landscape has changed with multinutrient compounds, which Ethiopia can import in sufficient volume to be economical. Thecompounds being delivered are highly concentrated, so it is not clear that blends will offer anadvantage in cost, but could still offer advantage in terms of product diversity and fastresponse time; a blender can make a blend to order in a matter of days, which is much moreresponsive than annual procurement.Lack of stock of blending ingredients, however, may hinder this. Products such aspolysulfate, TSP, and other micronutrients (Fe, Mn) not currently in formulations may berequired to meet the various demands posed by Ethiopia’s diverse soils and crops but requiressome research backing. Getting ingredients for research purposes is challenging in Ethiopiacompared to many SSA countries.Demand Side Constraints Farmer finance: MoANR/ATA are addressing this through various systems includingregional direct financing, support for

Assessment of Fertilizer Distribution and Opportunities for Developing Fertilizer Blends in Ethiopia 3 Table 1. Fertilizers available in Ethiopia and volumes sold for the 2016-17 season, based on distribution Fertilizer Formulation Description Volume Sold (MT) 2016-17 Season NP 19 38 0 7S NPS 238,191 DAP NP 18:46:0 DAP - TOTAL 1,154,838

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