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. 2019 Feb 27;39(9):1688–1698. doi: 10.1523/JNEUROSCI.1713-18.2018

Table 3.

Robustness checks in the regions of interest showing a significant effect of shifting latent state (from peak voxel of clusters reported in Table 1)

Region/model Mean beta t-value p-value (uncorrected)
Inferior temporal gyrus (−61, −24, −24)
    Prewhitened 0.0375 3.68 8.78e-4
    Minimal model 0.0693 4.57 7.37e-5
    Time-shifted 0.0729 4.19 2.14e-4
Occipitoparietal cortex (21, −69, 67)
    Prewhitened 0.0624 3.16 0.00347
    Minimal model 0.0372 1.13 0.265
    Time-shifted 0.0859 4.09 2.81e-4
Left orbitofrontal cortex (−16, 49, −15)
    Prewhitened 0.0256 2.27 0.0304
    Minimal model 0.0517 3.43 0.00172
    Time-shifted 0.0720 3.98 3.91e-4
Superior parietal lobule (−28, −48, 52)
    Prewhitened 0.0175 1.82 0.0792
    Minimal model 0.0116 0.547 0.588
    Time-shifted 0.0656 4.22 2.00e-4
Right orbitofrontal cortex (27, 43, −18)
    Prewhitened 0.0271 2.18 0.0367
    Minimal model 0.0586 3.93 4.45e-4
    Time-shifted 0.0640 4.06 3.11e-4
Occipital pole (−13, −93, −9)
    Prewhitened 0.0243 2.68 0.0116
    Minimal model 0.0539 3.47 0.00153
    Time-shifted 0.0426 3.08 0.00435

Peak-centered spheres were re-analyzed in three ways. The prewhitened analysis used unsmoothed voxels that were spatially prewhitened (Walther et al., 2016). The minimal model analysis used a regression model that only contained an intercept, the latent state predictor, and 15 off-diagonal autocorrelation terms. The time-shifted analysis used a time-shifted “shifting latent state” regressor in which representations at the time of outcome on a given trial were modeled as reflecting the beliefs that would guide behavior on the subsequent trial. This was offset by one trial from our original analysis, which assumed that representations upon viewing an outcome would reflect the beliefs that were formed in anticipation of that outcome rather than the updated ones that incorporated it.