prediction models for better decisions · ¿what do we do? prediction models for better decisions...

2
Outcomes and impact 19 LTACs in the generation, provision and use of agro-climatic information. institutions are engaged through farmers the LTACs in Colombia and Honduras. 330K are being reached with climate and/or crop management information through About Using an analysis of 10 years of weather and crop data connected to a seasonal forecast data, in 2014 avoided losses estimated at by taking the advice of Colombian rice farmers US $3,6M in climate-smart agriculture. Climate risk assessments using a combination of participatory methods with crop- climate models have been empowered with crop, livestock and/or climate modeling tools for staple crops including rice, beans, maize, bananas, coffee and livestock. in Kenya contributed to enabling investment of by the US $25M in Latin America, Asia, and Africa 15 More than An open access agro-climatic services platform has been adopted by 2 farmers organizations in Colombia, currently covering 22 maize- and rice-producing areas in subnational regions potentially reaching 10,000 farmers. national partners We help make better decisions in agriculture using innovative and cutting-edge methods and tools in modeling science, with a focus on the effects of climate variability and change. An interdisciplinary team of researchers works in developing and implementing modeling tools to help project variations in climate, crop, and livestock patterns, and economic systems. This information helps assess future scenarios and underpin effective responses to future challenges at farm, sub-national, national, and regional levels. ¿What do we do? Prediction Models for Better Decisions Agro-climate modeling refers to the creation, improvement and use of models to create seasonal climate and weather forecasts, and long- term climate change projections for use in crop modeling. Some models and tools include: CPT and R-CPT (seasonal forecasting), Global and Regional Climate Models and downscaling methods (ccafs-climate.org), RClimTool, and AClimateColombia (pronosticos.aclimatecolombia.org). Agro-Climate Modeling This type of modeling collects the data generated by the climate and crop models and displays future scenarios of how the economy could be impacted by, for example, a rise in temperature and a decrease in a crop yield. Models include IMPACT, Surplus economics and GTAP. Socio-Economic Modeling Crop and livestock modeling requires accurate weather and future climate information to understand how different crops will perform under specific climatic conditions. Some models are ORYZA rice model, DSSAT (containing more than 20 crops, including our very own MANIHOT model for cassava), GLAM, species distribution models, and agro-climatic index models. Crop and Livestock Modeling Models allow us to work through, and find solutions for, complicated problems and understand complex systems. They are tools that help us predict something like the behavior of climate, crop, or economic systems. Modeling 200 Almost in Latin America (Local Technical Agro-Climatic Committees) 170 (pronosticos.aclimatecolombia.org), 8

Upload: others

Post on 23-Aug-2020

1 views

Category:

Documents


0 download

TRANSCRIPT

Page 1: Prediction Models for Better Decisions · ¿What do we do? Prediction Models for Better Decisions Agro-climate modeling refers to the creation, improvement and use of models to create

Outcomesand impact

19LTACs

in the generation, provision and use of agro-climatic information.

institutionsare engaged through

farmers

the LTACs in Colombia and Honduras.

330K

are being reached with climate and/or crop management information through

About Using an analysis of 10 years of weather and crop data connected to a seasonal forecast data, in 2014

avoided losses estimated at

by takingthe advice of

Colombian rice farmers

US $3,6M in climate-smart agriculture.

Climate risk assessments using a combination of participatory methods with crop-climate models

have been empowered with crop, livestock and/or climate modeling toolsfor staple crops including rice, beans, maize, bananas, coffee and livestock.

in Kenyacontributed to enabling investment of

by the

US $25M

in Latin America, Asia, and Africa

15More than An open access

agro-climatic services platform has been adopted by 2 farmers organizations in Colombia, currently covering

22maize- and rice-producing areas in

subnational regions

potentially reaching

10,000farmers.

national partners

We help make better decisions in agriculture using innovative and cutting-edge methods and tools in modeling science, with a focus on the effects of climate variability and change.

An interdisciplinary team of researchers works in developing and implementing modeling tools to help project variations in climate, crop, and livestock patterns, and economic systems. This information helps assess future scenarios and underpin effective responses to future challenges at farm, sub-national, national, and regional levels.

¿What do we do?

Prediction Modelsfor Better Decisions

Agro-climate modeling refers to the creation, improvement and use of models to create seasonal climate and weather forecasts, and long-term climate change projections for use in crop modeling. Some models and tools include: CPT and R-CPT (seasonal forecasting), Global and Regional Climate Models and downscaling methods (ccafs-climate.org), RClimTool, and AClimateColombia (pronosticos.aclimatecolombia.org).

Agro-Climate Modeling

This type of modeling collects the data generated by the climate and crop models and displays future scenarios of how the economy could be impacted by, for example, a rise in temperature and a decrease in a crop yield. Models include IMPACT, Surplus economics and GTAP.

Socio-Economic Modeling

Crop and livestock modeling requires accurate weather and future climate information to understand how different crops will perform under specific climatic conditions. Some models are ORYZA rice model, DSSAT (containing more than 20 crops, including our very own MANIHOT model for cassava), GLAM, species distribution models, and agro-climatic index models.

Crop and Livestock Modeling

Models allow us to work through, and find solutions for, complicated problems and understand complex systems. They are tools that help us predict something like the behavior of climate, crop, or economic systems.

Modeling

200Almost

in Latin America

(Local Technical Agro-Climatic Committees)

1 7 0

(pronosticos.aclimatecolombia.org),

8

Page 2: Prediction Models for Better Decisions · ¿What do we do? Prediction Models for Better Decisions Agro-climate modeling refers to the creation, improvement and use of models to create

CRPS AND PLATFORMS UNDER WHICH WE WORK

Partners – donors

Crops, climate, and the economy all factor into the

livelihoods of millions of people.

Agro-climate modeling

gives farmers key information

to grow their crops in the

face of climate risk.

Socio-economic modeling provides decision makers with future scenarios for better informed solutions.

¿Did you know?

Crop and livestock models help to project productivity under a range of soil, climate and agronomic management conditions.

CONTACT

ciat.cgiar.org March 2019@cgiarclimate

Dr. Steven D. Prager Integrated Modeling Scientist [email protected]

Dr. Julian Ramirez-VillegasClimate Impact Scientist [email protected]

Award for Best Research Result 2018 (CIAT) for the creation ofpronosticos.aclimatecolombia.org

Awards

UN Pulse, 2014, in collaboration with the CIAT Big Data team.This pioneering work combined seasonal forecasts with Big Data analytics to avoid US$3.6m in rice crop losses.

UN Momentum 2017: The collaborative effort of +30 scientists was granted the coveted award by the United Nations Framework Convention on Climate Change. Their trailblazing work used big data methods to develop climate and agricultural forecasts for farmers in Colombia and Honduras.

GenebankPlatform

Key publications

• Challinor A. J. et al. (2016). Current warming will reduce yields unless maize breeding and seed systems adapt immediately. Nature Climate Change 6(6): 954-958. doi: 10.1038/nclimate3061

• Esquivel A. et al. (2018). Predictability of seasonal precipitation across major crop growing areas in Colombia. Climate Services. doi: 10.1016/j.cliser.2018.09.001

• Jarvis A. et al. (2012). Is Cassava the Answer to African Climate Change Adaptation?. Tropical Plant Biology 5(1): 9-29. doi: 10.1007/s12042-012-9096-7

• Martinez-Baron D. et al (2018). Small-scale farmers in a 1.5°C future: The importance of local social dynamics as an enabling factor for implementation and scaling of climate-smart agriculture. Current Opinion in Environmental Sustainability 31: 112-119. doi: 10.1016/j.cosust.2018.02.013

• Ramirez-Villegas J. et al. (2018). Breeding implications of drought stress under future climate for upland rice in Brazil. Global Change Biology 24(5). doi: 10.1111/gcb.14071

• Rippke U; Ramirez-Villegas J. et al. (2016). Timescales of transformational climate change adaptation in sub-Saharan African agriculture. Nature Climate Change 6(6): 605-609. doi:10.1038/nclimate2947