{
"papers": [
{
"doi": "10.7554/elife.57541",
"value": "SST carries prediction signal — inhibitory plasticity learns to predict expected input",
"method": "inhibitory plasticity learning rule",
"metric": "SST role in predictive coding",
"cite_key": "Hertag2020",
"condition": "sensory prediction",
"study_system": "mean-field canonical circuit",
"value_source_sentence": "Learning prediction error neurons in a canonical interneuron circuit."
},
{
"doi": "10.7554/elife.95127",
"value": "SST signals predictions with uncertainty modulation of prediction error magnitude",
"method": "uncertainty estimation",
"metric": "SST role in predictive coding",
"cite_key": "Wilmes2025",
"condition": "Bayesian inference",
"study_system": "microcircuit model",
"value_source_sentence": "Uncertainty-modulated prediction errors in cortical microcircuits."
},
{
"doi": "10.1101/2025.11.01.686040",
"value": "SOM provides compartment-specific inhibition for sign-specific PE without learning",
"method": "fixed-weight spiking dynamics",
"metric": "SST role in predictive coding",
"cite_key": "Nemati2025",
"condition": "V1 L2/3 predictive coding",
"study_system": "spiking network, 2-compartment pyramidal",
"value_source_sentence": "A spiking network model is presented here in which two-compartment excitatory pyramidal neurons interact with three inhibitory subtypes to compute sign-specific prediction errors."
},
{
"doi": "10.1371/journal.pcbi.1011921",
"value": "SST-mediated dendritic inhibition carries top-down prediction during visuomotor mismatch",
"method": "visuomotor prediction model",
"metric": "SST role in predictive coding",
"cite_key": "GalvanFraile2024",
"condition": "visual flow mismatch",
"study_system": "circuit model",
"value_source_sentence": "Modeling circuit mechanisms of opposing cortical responses to visual flow perturbations."
},
{
"doi": "10.1371/journal.pcbi.1013469",
"value": "SST and PV generate distinct oscillatory patterns during predictive coding phases",
"method": "oscillatory analysis",
"metric": "SST role in predictive coding",
"cite_key": "Lee2025",
"condition": "sensory prediction",
"study_system": "spiking network",
"value_source_sentence": "Cortical networks with multiple interneuron types generate oscillatory patterns during predictive coding."
}
],
"comparison_id": "predictive-coding-sst-models",
"comparison_name": "Competing predictive coding models: SST role in prediction vs error computation",
"comparison_type": "cross-study conflict",
"what_it_reveals": "Models disagree on whether SST neurons carry the prediction signal (top-down expectations mediated through dendritic inhibition) or contribute to computing the prediction error. This reveals a fundamental unresolved question about SST's role in cortical inference.",
"homogeneity_check": {
"caveats": "Different model architectures (mean-field vs spiking vs rate), different definitions of prediction error, different brain regions. The disagreement may partly reflect different levels of abstraction rather than genuine conflict.",
"comparable": false
},
"suggested_plot_type": "grouped bar"
}