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# AI for Agriculture
# Experiences from livestock disease
(and a few other bits)
## I want to mention a few themes via examples:
- modelling a system that is a moving target
- producing socially feasible outputs
- modelling/analysis where data cannot be shared
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## Modelling a moving target
- modelling a system that is **stable** is the easiest <span style="color:green">green</span>
- modelling a system that is **changing** is <span style="color:orange">harder</span>
- modelling a system that **changes in response** to your model is <span style="color:red">even harder</span>!
## Making socially viable decisions
- some outputs are **impractical**
- some outputs are socially or politically **infeasible**
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An example that covers both:
## Which farms are highest priority for disease surveillance?

Various forms of this kind of work via EPIC and elsewhere.
- a complex output isn't **feasible**
- needs to be explainable in a pamphlet
- needs to avoid 'computer says no'
- simple outputs may seem unfair or be gameable
- e.g.: farms of intermediate size have highest risk
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## Data may not be shareable
- commercially sensitive
- lack of incentives to share
- slow data sharing in an emergency
- recent project: DigiVet (https://zenodo.org/communities/digivet/)
There are ways to deal with this:
- socio-approaches: sharing benefits all
- technical approaches:
- privacy-preserving approaches
federated learning
- e.g. https://ioftdatatrustwg.github.io/
Despite these challenges, much opportunity!
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