A 'stimulus-computable' modeling approach resolves apparent inconsistencies between human and monkey lesion data, implicating perirhinal cortex in visual object perception.

Bilateral removal of cortical area 'TE' produced deficits in monkeys' ability to discriminate among images with many similar features, whereas removal of subjacent rhinal cortex did not.

Perirhinal cortex, a brain structure located in the medial temporal lobe, uniquely supports the integration of visual and conceptual object information.

Neural spiking responses in the visual cortex carry both an explicit representation of the presence of a face and a late-arriving, explicit encoding of errors in face estimation.

HCN2 channels in the ventral tegmental area play an important role in the pathophysiology of chronic mild stress-induced behavioral deficits.

Rats exposed to a single stressful event experience days-long constitutive activation of the kappa opioid receptor at inhibitory synapses in part of the brain’s reward system, which increases their drug-seeking behavior.

For brain imaging to be useful despite its limitations in measuring neural activity, the neural code must be smooth both in a traditional sense and functionally.

Mechanosensitive inhibition of actin polymerization through VASP phosphorylation is required for stress fiber maturation and alignment.

Using Monkey EEG as a bridge technology, color and motion representations in human MEG are linked to microcircuit activity in ventral stream areas.

Functional neuroimaging reveals sensitivity to shape information and correlation between brain activation and perceptual behaviour in both dorsal and ventral visual pathways, thereby challenging the strict binary distinctions between the two pathways.