Phillip E. Gander

The paper investigates the neural basis of navigating an auditory dimension in humans, finding overlapping brain systems with physical navigation.

This study shows that a single exercise session increases hippocampal ripples and enhances their coupling with cortical networks in humans.

The paper investigates changes in auditory steady-state response (ASSR) in tinnitus patients and finds no significant amplitude differences between acute and chronic tinnitus but notes reduced amplitude in tinnitus groups compared to controls.

The paper investigates how perceptual novelty contributes to tinnitus persistence by analyzing P300 responses in acute, post-acute, chronic tinnitus, and control groups.

The paper investigates tinnitus onset by analyzing IDAEP slopes, finding increased sensory reactivity during acute tinnitus that decreases over time.

This study records multi-unit pitch responses from human auditory cortex and finds they are distributed across Heschl's gyrus, not localized to a specific region.

This study uses iEEG to show how reward and risk computations are temporally organized in the human brain, revealing cascading and parallel encoding patterns.

The paper identifies neural correlates of speech-in-noise performance in cochlear implant users using EEG and clinical speech tests, finding ERP amplitudes predict word recognition tasks better than traditional measures.

This study examines the neural impact of disconnecting a semantic hub in the human brain and finds specific network changes and partial compensation.

This study uses intracranial electrocorticography to evaluate the effects of transcranial magnetic stimulation in humans, showing localized and network-level brain responses.

The paper identifies two cortical processes—pre-target noise attenuation and post-target speech extraction—that independently predict individual differences in speech-in-noise performance.

This study investigates oscillatory activity in human brain regions during auditory working memory using electrocorticography, finding sustained low-frequency increases in medial temporal lobe regions.

This study investigates the role of frontal and auditory cortices in vocal motor control using direct electrical stimulation in patients, showing distinct contributions of these regions to vocal initiation and feedback-dependent control.

The paper investigates alpha oscillations in human non-primary auditory cortex using electrode recordings from epilepsy patients, finding that alpha activity is suppressed during speech processing in a specific region.