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What evidence supports special processing for faces? A cautionary tale for fMRI interpretation
Rosemary A Cowell1, Garrison W Cottrell
1University of Massachusetts Amherst.
Journal of Cognitive Neuroscience
|July 18, 2013
Summary
A neurocomputational model challenges the interpretation of fMRI data, showing that specialized face-processing areas may not be necessary to explain observed brain activity patterns for object and face recognition.
Area of Science:
- Neuroscience
- Cognitive Science
- Computational Modeling
Background:
- Functional magnetic resonance imaging (fMRI) studies have yielded conflicting results regarding the specialization of neural processing for faces versus objects in the human brain.
- Two prominent fMRI studies offered contradictory interpretations: one supporting an "object-form topography" model and the other suggesting specialized face-processing mechanisms in the fusiform face area.
Purpose of the Study:
- To investigate whether a neurocomputational model without specialized face-processing architecture could replicate fMRI findings related to object and face recognition.
- To re-evaluate the interpretation of fMRI data concerning the neural basis of visual category information.
Main Methods:
- A neurocomputational model was trained on six categories of photographic images, mirroring stimuli from prior fMRI research.
- Multivariate pattern analyses were applied to the model's activation patterns in its object-encoding layer.
Main Results:
- The model's activation patterns successfully reproduced the findings of both contradictory fMRI studies.
- The model, lacking any face-specific mechanisms, generated results previously interpreted as evidence for specialized face neurons.
Conclusions:
- The study argues that the fMRI results used to support claims of specialized face-processing neurons do not necessarily provide such evidence.
- Neurocomputational modeling suggests a need for caution when interpreting fMRI data, as complex patterns can emerge from general processing mechanisms.

