Kâmil Uludaǧ

The paper examines depth-dependent coupling between neuronal activity and fMRI in the human auditory cortex during naturalistic music listening, revealing spectrolaminar organization of neurovascular coupling.

This study uses laminar fMRI to investigate predictive auditory processing in human cortical layers, showing hierarchical organization of prediction violations and their association with specific cortical layers.

The paper evaluates diffusion MRI's role in improving brainstem ROI registration accuracy compared to T1w-only methods, showing better performance with diffusion-based pipelines.

This study characterizes the human claustrum using multiscale methods, revealing MRI resolution-dependent features and defining practical measurement limits.

This study evaluates high-resolution arterial spin labelling MRI at 3 Tesla, showing improved SNR and reduced partial voluming compared to standard protocols.

This study examines neurodegenerative and functional changes in the cerebellar cortex of m.3243A>G patients using MRI, revealing structural and connectivity alterations linked to cognitive deficits.

The paper compares hypoxia-induced deoxyhemoglobin and gadolinium as susceptibility contrast agents for cerebral perfusion imaging in healthy participants.

The paper demonstrates the feasibility of using rapid changes in blood oxygenation to simulate gadolinium contrast in perfusion MRI for flow metric calculation.

This study demonstrates sub-millimetre resolution laminar fMRI using ASL in humans at 7T, showing perfusion and BOLD signals are consistent despite apparent discrepancies.

This paper investigates how MP2RAGE sequence parameters affect T1 reproducibility and morphometry across sites, showing that B1+ inhomogeneities significantly impact results and that corrections improve comparability.

This paper uses high-resolution MRI to visualize and characterize the human zona incerta and surrounding brain structures in vivo.

This study uses depth-resolved ultra-high field fMRI to show feedback contributes to surface motion perception by revealing depth-specific BOLD signal changes in early visual cortex.

The paper introduces a dynamical model of the laminar BOLD response that accounts for hemodynamic effects, showing how baseline blood volume and neuronal activity shape the spatial profile of the signal.