Artin Arshamian

The paper shows that recurrent interactions between the olfactory bulb and piriform cortex in humans maintain perceptual continuity by integrating sensory information across successive sniffs.

The paper introduces a 3D tracking method to measure non-conscious avoidance reactions in olfaction and vision, showing participants move away from unpleasant stimuli.

This study evaluates EBG signal quality across different methodological configurations, finding that subject-specific setups improve signals but template-based methods also yield significant results.

The paper investigates the heritability of olfactory bulb volume and olfactory network architecture using twin data and machine learning, finding that genetic factors influence the network as a whole.

The paper shows that the olfactory bulb and cortex use oscillatory dynamics to reflect perceived odor intensity rather than physical concentration.

This study challenges the traditional view of pupillary changes during respiration, showing pupils are smallest at inhalation onset and largest during exhalation across multiple conditions.

This study shows that metabolic state affects odor processing in the human olfactory bulb, with higher gamma power observed during hunger compared to satiety.

This study identifies the timing, frequency bands, and direction of odor valence communication between the olfactory bulb and piriform cortex using human neural activity and valence ratings.

This study examines how recent acquired olfactory loss affects cerebral morphology and functional connectivity in humans.

The paper shows that odor identity can be decoded from bidirectional oscillatory communication between the olfactory bulb and piriform cortex in humans.

This study applies a whole-brain oscillation model to resting-state fMRI data to differentiate ADHD subtypes and test neuro-stimulation therapies.

This study shows that the human olfactory bulb processes odor valence through gamma and beta activity, with negative odors triggering motor avoidance behavior.

This paper introduces a non-invasive method to record neural activity from the human olfactory bulb using EEG, termed Electrobulbogram (EBG), which is reliable and localized to the OB.