Logo Lanfrica
  • Home
  • Atlas
  • Insights
  • Docs
  • Sign in

© 2026 Lanfrica. All rights reserved. All copyrights of the resources shown on the Lanfrica website belong to the original copyright holders, unless explicitly stated otherwise.

Projecting trends of arabica coffee yield under climate change: A process-based modelling study at continental scale

Domain:

agricultureclimate

Record type:

papermodel
Creator:
DelMerSpaMar
Editor:
EurUniBotDép
Publisher:
CCSDEls
Host:avatar
International audience Context: Climate change may lead to negative impacts on coffee production, such as reduced yields. Addressing this issue requires identifying climate risks and assessing the adaptation potential of agronomic practices across spatial and environmental gradients. OBJECTIVE This study aimed to evaluate climate change impacts on arabica coffee yields at continental scale and evaluate a specific adaptation measure, i.e. increasing shade tree density in agroforestry settings, by simulating the physiological links between coffee growth, climatic factors and agronomic management. Methods: After evaluating the performance of the process-based model DynACof in simulating arabica yields (using data from previous studies), we developed a new tool called G-DynACof, a modelling framework for spatializing DynACof on a regional scale using extensive climate projections and soil geodata. We used G-DynACof to simulate trends of potential coffee yields in Latin America and Africa using an ensemble of downscaled and bias-corrected climate projections for the period 2036–2065 compared to a historical period 1985–2014. RESULTS AND Conclusions: Despite considerable uncertainties due to the scarcity of information on agronomic management at the regional scale, our results indicate that potential yields could decrease between 23 % and 35 % in Latin America and between 16 % and 21 % in Africa, depending on the Shared Socioeconomic Pathway (SSP) considered (SSP1–2.6 and SSP5–8.5, respectively). Yield variations were very heterogeneous in space, with yields increasing at high altitudes and low latitudes, indicating a possible future shift of production areas. In our simulations, the effect of increased shade tree density on productivity was also spatially variable, and its potential for adaptation to climate change remains uncertain, requiring further investigation. SIGNIFICANCE Impact analyses and adaptation modelling of coffee agrosystems, together with socio-economic indicators, can delineate realistic, comprehensive, integrated risk assessments and support effective adaptation recommendations.

Visit

hal.inrae.fr

Tags

Process-based modellingCoffea arabicaRegional scaleAgroforestry systemsAdaptationClimate changeCoffee[SDV.SA]Life Sciences [q-bio]/Agricultural sciences

Similar

Projecting maize yield under local‐scale climate change scenarios using crop models: Sensitivity to sowing dates, cultivar, and nitrogen fertilizer ratesModelling Maize Yield and Water Requirements under Different Climate Change ScenariosSpatial modelling for population replacement of mosquito vectors at continental scaleModelling the Impacts of Climate Change on the Yield of CropsProjecting the Potential Distribution of Glossina morsitans (Diptera: Glossinidae) under Climate Change Using the MaxEnt ModelSoil salinization under different climate change scenarios: a global scale analysis

Projecting maize yield under local‐scale climate change scenarios using crop models: Sensitivity to sowing dates, cultivar, and nitrogen fertilizer rates

Abstract The APSIM‐Maize and CERES‐Maize models are widely used in impact studies to analyze the ef

Modelling Maize Yield and Water Requirements under Different Climate Change Scenarios

African countries such as Nigeria are anticipated to be more susceptible to the impacts of climate c

Spatial modelling for population replacement of mosquito vectors at continental scale

Abstract Malaria is one of the deadliest vector-borne diseases

Modelling the Impacts of Climate Change on the Yield of Crops

This study aims to improve the understanding of the impact changes being experienced in our climate

Projecting the Potential Distribution of Glossina morsitans (Diptera: Glossinidae) under Climate Change Using the MaxEnt Model

Glossina morsitans is a vector for Human African Trypanosomiasis (HAT), which is mainly distributed

Soil salinization under different climate change scenarios: a global scale analysis

Population growth and climate change is projected to increase the pressure on land and water resourc