@inbook{ebcdd37d663e4f70ac2c37b86f42b056,

title = "Statistical models for neural encoding, decoding, and optimal stimulus design",

abstract = "There are two basic problems in the statistical analysis of neural data. The {"}encoding{"} problem concerns how information is encoded in neural spike trains: can we predict the spike trains of a neuron (or population of neurons), given an arbitrary stimulus or observed motor response? Conversely, the {"}decoding{"} problem concerns how much information is in a spike train, in particular, how well can we estimate the stimulus that gave rise to the spike train? This chapter describes statistical model-based techniques that in some cases provide a unified solution to these two coding problems. These models can capture stimulus dependencies as well as spike history and interneuronal interaction effects in population spike trains, and are intimately related to biophysically based models of integrate-and-fire type. We describe flexible, powerful likelihood-based methods for fitting these encoding models and then for using the models to perform optimal decoding. Each of these (apparently quite difficult) tasks turn out to be highly computationally tractable, due to a key concavity property of the model likelihood. Finally, we return to the encoding problem to describe how to use these models to adaptively optimize the stimuli presented to the cell on a trial-by-trial basis, in order that we may infer the optimal model parameters as efficiently as possible.",

keywords = "decoding, neural coding, optimal experimental design",

author = "Liam Paninski and Jonathan Pillow and Jeremy Lewi",

note = "Funding Information: JP is supported by a Royal Society International Research Fellowship and JL by a DOE Computational Science Graduate Fellowship. We thank R. Butera, D. Butts, J. Kulkarni, and E. Simoncelli for many interesting conversations, and especially V. Uzzell and E.J. Chichilnisky for permission to use data from the example cell shown in Fig. 2 . Copyright: Copyright 2008 Elsevier B.V., All rights reserved.",

year = "2007",

doi = "10.1016/S0079-6123(06)65031-0",

language = "English (US)",

isbn = "0444528237",

series = "Progress in Brain Research",

pages = "493--507",

editor = "Paul Cisek and Trevor Drew and John Kalaska",

booktitle = "Computational Neuroscience",

}