Christoph Schneider
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
Christoph Schneider has a total of 19 co-authors. Here are the top co-authors by number of shared publications:
- Heidi I. L. Jacobs
The Athinoula A. Martinos Center for Biomedical Imaging, Department of Radiology, Massachusetts General Hospital, Boston, USA
2 shared publications Prokopis C. Prokopiou
Athinoula A. Martinos Center for Biomedical Imaging, Department of Radiology, Massachusetts General Hospital, Boston, MA, USA
2 shared publicationsAaron P. Schultz
The Athinoula A. Martinos Center for Biomedical Imaging Department of Radiology Massachusetts General Hospital Charlestown Massachusetts USA
1 shared publicationBenedikt A. Poser
Department of Cognitive Neuroscience, Faculty of Psychology and Neuroscience, Maastricht University, Maastricht, the Netherlands
1 shared publicationDimo Ivanov
Department of Cognitive Neuroscience, Faculty of Psychology and Neuroscience, Maastricht University, Maastricht, The Netherlands; Max Planck Institute for Empirical Aesthetics, Frankfurt, Germany
1 shared publicationDorene M. Rentz
Harvard Medical School Boston Massachusetts USA
1 shared publication
Latest Publications
- Open Access
- 20 June 2025
- Published by Elsevier in Brain Stimulation
- Vol. 18 (4) , 1205-1207
Locus coeruleus fMRI response to transcutaneous auricular vagus nerve stimulation is coupled to changes in salivary alpha amylase
- 20 June 2025
- Published by Elsevier in Brain Stimulation
- Vol. 18 (4) , 1205-1207
Open AccessLocus coeruleus fMRI response to transcutaneous auricular vagus nerve stimulation is coupled to changes in salivary alpha amylase
- Open Access
- 27 April 2024
- Published by Wiley in Alzheimer's & Dementia
- Vol. 20 (6) , 3958-3971
Atrophy links lower novelty‐related locus coeruleus connectivity to cognitive decline in preclinical AD
INTRODUCTION: Animal research has shown that tau pathology in the locus coeruleus (LC) is associated with reduced norepinephrine signaling, lower projection density to the medial temporal lobe (MTL), atrophy, and cognitive impairment. We investigated the contribution of LC‐MTL functional connectivity (FCLC‐MTL) on cortical atrophy across Braak stage regions and its impact on cognition.METHODS: We analyzed functional magnetic resonance imaging and amyloid beta (Aβ) positron emission tomography data from 128 cognitively normal participants, associating novelty‐related FCLC‐MTL with longitudinal atrophy and cognition with and without Aβ moderation.RESULTS: Cross‐sectionally, lower FCLC‐MTL was associated with atrophy in Braak stage II regions. Longitudinally, atrophy in Braak stage 2 to 4 regions related to lower baseline FCLC‐MTL at elevated levels of Aβ, but not to other regions. Atrophy in Braak stage 2 regions mediated the relation between FCLC‐MTL and subsequent cognitive decline.DISCUSSION: FCLC‐MTL is implicated in Aβ‐related cortical atrophy, suggesting that LC‐MTL connectivity could confer neuroprotective effects in preclinical AD.Highlights: Novelty‐related functional magnetic resonance imaging (fMRI) LC‐medial temporal lobe (MTL) connectivity links to longitudinal Aβ‐dependent atrophy. This relationship extended to higher Braak stage regions with increasing Aβ burden. Longitudinal MTL atrophy mediated the LC‐MTL connectivity–cognition relationship. Our findings mirror the animal data on MTL atrophy following NE signal dysfunction.
- 27 April 2024
- Published by Wiley in Alzheimer's & Dementia
- Vol. 20 (6) , 3958-3971
Open AccessAtrophy links lower novelty‐related locus coeruleus connectivity to cognitive decline in preclinical AD
INTRODUCTION: Animal research has shown that tau pathology in the locus coeruleus (LC) is associated with reduced norepinephrine signaling, lower projection density to the medial temporal lobe (MTL), atrophy, and cognitive impairment. We investigated the contribution of LC‐MTL functional connectivity (FCLC‐MTL) on cortical atrophy across Braak stage regions and its impact on cognition.METHODS: We analyzed functional magnetic resonance imaging and amyloid beta (Aβ) positron emission tomography data from 128 cognitively normal participants, associating novelty‐related FCLC‐MTL with longitudinal atrophy and cognition with and without Aβ moderation.RESULTS: Cross‐sectionally, lower FCLC‐MTL was associated with atrophy in Braak stage II regions. Longitudinally, atrophy in Braak stage 2 to 4 regions related to lower baseline FCLC‐MTL at elevated levels of Aβ, but not to other regions. Atrophy in Braak stage 2 regions mediated the relation between FCLC‐MTL and subsequent cognitive decline.DISCUSSION: FCLC‐MTL is implicated in Aβ‐related cortical atrophy, suggesting that LC‐MTL connectivity could confer neuroprotective effects in preclinical AD.Highlights: Novelty‐related functional magnetic resonance imaging (fMRI) LC‐medial temporal lobe (MTL) connectivity links to longitudinal Aβ‐dependent atrophy. This relationship extended to higher Braak stage regions with increasing Aβ burden. Longitudinal MTL atrophy mediated the LC‐MTL connectivity–cognition relationship. Our findings mirror the animal data on MTL atrophy following NE signal dysfunction.
- 17 July 2019
- Published by Springer Nature in Brain Topography
- Vol. 33 (1) , 48-59
Real-time EEG Feedback on Alpha Power Lateralization Leads to Behavioral Improvements in a Covert Attention Task
Visual attention can be spatially oriented, even in the absence of saccadic eye-movements, to facilitate the processing of incoming visual information. One behavioral proxy for this so-called covert visuospatial attention (CVSA) is the validity effect (VE): the reduction in reaction time (RT) to visual stimuli at attended locations and the increase in RT to stimuli at unattended locations. At the electrophysiological level, one correlate of CVSA is the lateralization in the occipital \(\alpha\)-band oscillations, resulting from \(\alpha\)-power increases ipsilateral and decreases contralateral to the attended hemifield. While this \(\alpha\)-band lateralization has been considerably studied using electroencephalography (EEG) or magnetoencephalography (MEG), little is known about whether it can be trained to improve CVSA behaviorally. In this cross-over sham-controlled study we used continuous real-time feedback of the occipital \(\alpha\)-lateralization to modulate behavioral and electrophysiological markers of covert attention. Fourteen subjects performed a cued CVSA task, involving fast responses to covertly attended stimuli. During real-time feedback runs, trials extended in time if subjects reached states of high \(\alpha\)-lateralization. Crucially, the ongoing \(\alpha\)-lateralization was fed back to the subject by changing the color of the attended stimulus. We hypothesized that this ability to self-monitor lapses in CVSA and thus being able to refocus attention accordingly would lead to improved CVSA performance during subsequent testing. We probed the effect of the intervention by evaluating the pre-post changes in the VE and the \(\alpha\)-lateralization. Behaviorally, results showed a significant interaction between feedback (experimental–sham) and time (pre-post) for the validity effect, with an increase in performance only for the experimental condition. We did not find corresponding pre-post changes in the \(\alpha\)-lateralization. Our findings suggest that EEG-based real-time feedback is a promising tool to enhance the level of covert visuospatial attention, especially with respect to behavioral changes. This opens up the exploration of applications of the proposed training method for the cognitive rehabilitation of attentional disorders.- 17 July 2019
- Published by Springer Nature in Brain Topography
- Vol. 33 (1) , 48-59
Real-time EEG Feedback on Alpha Power Lateralization Leads to Behavioral Improvements in a Covert Attention Task
Visual attention can be spatially oriented, even in the absence of saccadic eye-movements, to facilitate the processing of incoming visual information. One behavioral proxy for this so-called covert visuospatial attention (CVSA) is the validity effect (VE): the reduction in reaction time (RT) to visual stimuli at attended locations and the increase in RT to stimuli at unattended locations. At the electrophysiological level, one correlate of CVSA is the lateralization in the occipital \(\alpha\)-band oscillations, resulting from \(\alpha\)-power increases ipsilateral and decreases contralateral to the attended hemifield. While this \(\alpha\)-band lateralization has been considerably studied using electroencephalography (EEG) or magnetoencephalography (MEG), little is known about whether it can be trained to improve CVSA behaviorally. In this cross-over sham-controlled study we used continuous real-time feedback of the occipital \(\alpha\)-lateralization to modulate behavioral and electrophysiological markers of covert attention. Fourteen subjects performed a cued CVSA task, involving fast responses to covertly attended stimuli. During real-time feedback runs, trials extended in time if subjects reached states of high \(\alpha\)-lateralization. Crucially, the ongoing \(\alpha\)-lateralization was fed back to the subject by changing the color of the attended stimulus. We hypothesized that this ability to self-monitor lapses in CVSA and thus being able to refocus attention accordingly would lead to improved CVSA performance during subsequent testing. We probed the effect of the intervention by evaluating the pre-post changes in the VE and the \(\alpha\)-lateralization. Behaviorally, results showed a significant interaction between feedback (experimental–sham) and time (pre-post) for the validity effect, with an increase in performance only for the experimental condition. We did not find corresponding pre-post changes in the \(\alpha\)-lateralization. Our findings suggest that EEG-based real-time feedback is a promising tool to enhance the level of covert visuospatial attention, especially with respect to behavioral changes. This opens up the exploration of applications of the proposed training method for the cognitive rehabilitation of attentional disorders.