Lifting yields with spatial arrangement in agroforestry plots
Challenge
Spatial factors are important for crops – how close are shade trees, how widely to fertilize, or how large should plots be, to name a few considerations. But the impacts can be tricky to analyze, and trickier still in an agroforestry context where farm plots can be complex.
Solution
Using spatial statistical methods we unpicked how factors like shade tree species and distance, soils, edge effects, and boundaries between plots all impacted yield quality and quantity, as well as disease.
Applicability
These kinds of analyses help to direct our clients on how to optimize crop arrangement in their agroforestry plots to lift crop yields and suppress disease and pathogens.
Extreme weather impacts on agrochemical product performance
Challenge
Agrochemicals deal with all the environmental stressors found in the field. Even the most robust products become less effective in extreme temperatures or periods of plant stress. Pinpointing which conditions are responsible given the complexity of climate and local environments.
Solution
Using only survey data and locations from-end users, we can identify which extreme environmental changes impacted product performance by scraping climate data from the web. Working these models we can find critical thresholds specific to farming regions, such as temperature cutoffs.
Applicability
Such analyses are valuable to product development teams seeking to improve usage recommendations, end-users like farmers or orchardists, and can help avoid unnecessary use of products under poor application conditions.
Efficient smallholder farm planning with genetic algorithms
Challenge
Smallholder or family farms have limited space and often rely on a diverse base of saleable products. However, getting the best spatial positioning out of all profitable crops is a surprisingly difficult calculation - even if a computer is provided with perfectly accurate data.
Solution
Rather than trying to find the perfect layout, we have developed algorithms in which basic requirements such as crop diversity, annual budgets, and land surface can be used on a per-farm basis. These algorithms use an iterative, evolutionary process to return a range of options to inform planning.
Applicability
These tools can be modified for any range of small-scale farming systems, including organic vegetables, urban farming systems, or intercropping trials. Due to their speed and flexibility, we can customize tools to provide reactive answers in real-time.