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Ability to use a generated spatial markov chain to predict the next n states #161
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Is this issue fixed. If not Can you tell me how you want to things to be implemented ? I haven't worked with pysal till of now but I have worked in probabilistic graphical models, and currently was working on implementing sampling based on Hamiltonian Monte Carlo. With help I can work this off. Can you suggest starting point specifically code base section that I should go through. |
I've experimented with this before and is currently reorganizing the code to make it complete and convenient to use. |
Looking forward. |
This'll move to giddy & is still an active interest. |
Trying to reconstruct a timeline from memory today for how geosnap came into being, I went looking for this old issue assuming it was over here. Instead I saw this issue for the first time in years 😂. To close the loop, I've got a simple version of this implemented over in geosnap. It only does a single draw from the spatially-conditioned probs, but should be trivial to wrap in a loop to generate the parameters @stuartlynn wants, no? Either way, I'd think if that implementation is correct, we should move it here then extend if @ljwolf and @weikang9009 agree? |
(we'd have to generalize the geosnap version for continuous data, obviously, but i mean the core logic should live here, yeah?) |
It would be great to have a method to use a trained spatial Markov chain to predict the next n states for a set of geometries.
where inital_state would be a list of the current state of each regions and prediction would be a list of lists which would contain the predictions for the next n steps for each region.
In addition there could be a function
where trials is the number of randomly seeded predictions to make. The result would be a list of the mean and variance of the predictions for the next N steps
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