Dieter Jaeger

This paper introduces a platform combining wide-field optical imaging and fMRI to study neuronal infraslow dynamics underlying functional connectivity.

This study shows behavior shapes cortical network dynamics differently across frequencies and signal types in awake mice.

The paper investigates the role of apical tuft dendrites in the anterolateral motor cortex in flexible learning using a rule-switching paradigm.

The paper uses voltage imaging to study fast cortical dynamics during a reaching task, identifying distinct oscillatory patterns and network behaviors.

The paper examines how arousal correlates with cortical voltage and hemodynamic signals in mice, finding distinct spatial and frequency-dependent patterns.

The paper models synaptic integration in ventromedial motor thalamocortical neurons under normal and dopamine-depleted conditions, finding increased firing rates and altered responses to inhibitory inputs in dopamine-depleted states.

This paper develops a brighter and faster voltage indicator, JEDI-1P, enabling single-trial widefield voltage imaging in awake mice.

The paper investigates input sources to layer 1 of mouse somatosensory cortex using retrograde tracing and optogenetics, revealing local and long-range contributions and their interactions.

This study shows that specific brain rhythms alter microglial morphology and cytokine expression through NFkappaB signaling, with frequency-specific effects observed in healthy animals.

The paper investigates how thalamic bursting and timing affect cortical responses in awake mice using optogenetics and electrophysiology.

This study identifies the nigro-thalamic pathway's role in timing action initiation by combining electrophysiology and optogenetics in mice.

This study investigates changes in intrinsic excitability of BGMT neurons in 6-OHDA lesioned mice, finding increased excitability due to reduced M-type potassium current.

This study uses optogenetics to show that unilateral inhibition and excitation of basal ganglia output to motor thalamus in mice oppositely affect directional licking choices and movement initiation.