Remco A Renken

Dr. Remco A Renken


Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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13 February 2014 in Cerebral Cortex
Verified
Journal Article
Open access
PDF file
LGLinda Geerligs
Linda Geerligs
RRRemco A Renken
Remco A Renken
ESEmi Saliasi
Emi Saliasi
Natasha M. MauritsNatasha M. Maurits
Natasha M. Maurits
MLMonicque M. Lorist
Monicque M. Lorist
Aging affects functional connectivity between brain areas, however, a complete picture of how aging affects integration of information within and between functional networks is missing. We used complex network measures, derived from a brain-wide graph, to provide a comprehensive overview of age-related changes in functional connectivity. Functional connectivity in young and older participants was assessed during resting-state fMRI. The results show that aging has a large impact, not only on connectivity within functional networks but also on connectivity between the different functional networks in the brain. Brain networks in the elderly showed decreased modularity (less distinct functional networks) and decreased local efficiency. Connectivity decreased with age within networks supporting higher level cognitive functions, that is, within the default mode, cingulo-opercular and fronto-parietal control networks. Conversely, no changes in connectivity within the somatomotor and visual networks, networks implicated in primary information processing, were observed. Connectivity between these networks even increased with age. A brain-wide analysis approach of functional connectivity in the aging brain thus seems fundamental in understanding how age affects integration of information.

4 October 2010 in Archives of General Psychiatry
Verified
Journal Article
Open access
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MTMarie-José van Tol
Marie-José van Tol
NWNic J. A. van der Wee
Nic J. A. van der Wee
OHOdile A. van Den Heuvel
Odile A. van Den Heuvel
MNMarjan M. A. Nielen
Marjan M. A. Nielen
LDLiliana R. Demenescu
Liliana R. Demenescu
DVDick J. Veltman
Dick J. Veltman
Major depressive disorder (MDD), panic disorder (PD), generalized anxiety disorder (GAD), and social anxiety disorder (SAD) are among the most prevalent and most frequently co-occurring psychiatric disorders in adults. Estimations of the comorbidity of depression and anxiety range from 10% to more than 50%.1-4 Therefore, it has been suggested that depression and anxiety have a similar etiology; they also respond to the same treatment strategies.3 The comorbid condition of depression and anxiety (CDA), however, may differ from MDD in clinical course and characteristics because it has been associated with worse outcome1,2,4-6 and more severe psychopathology.4,6,7 Also, the onset of anxiety often precedes the onset of the first depressive episode.8 However, in studies investigating the neurobiology of depression and anxiety, comorbidity is rarely explicitly studied.

3 May 2010 in Proceedings of the National Academy of Sciences
Verified
Journal Article
Closed access
MSMarleen B. Schippers
Marleen B. Schippers
ARAlard Roebroeck
Alard Roebroeck
RRRemco A Renken
Remco A Renken
LNLuca Nanetti
Luca Nanetti
CKChristian Keysers
Christian Keysers
Both the putative mirror neuron system (pMNS) and the ventral medial prefrontal cortex (vmPFC) are deemed important for social interaction: the pMNS because it supposedly “resonates” with the actions of others, the vmPFC because it is involved in mentalizing. Strictly speaking, the resonance property of the pMNS has never been investigated. Classical functional MRI experiments have only investigated whether pMNS regions augment their activity when an action is seen or executed. Resonance, however, entails more than only “going on and off together”. Activity in the pMNS of an observer should continuously follow the more subtle changes over time in activity of the pMNS of the actor. Here we directly explore whether such resonance indeed occurs during continuous streams of actions. We let participants play the game of charades while we measured brain activity of both gesturer and guesser. We then applied a method to localize directed influences between the brains of the participants: between-brain Granger-causality mapping. Results show that a guesser's brain activity in regions involved in mentalizing and mirroring echoes the temporal structure of a gesturer's brain activity. This provides evidence for resonance theories and indicates a fine-grained temporal interplay between regions involved in motor planning and regions involved in thinking about the mental states of others. Furthermore, this method enables experiments to be more ecologically valid by providing the opportunity to leave social interaction unconstrained. This, in turn, would allow us to tap into the neural substrates of social deficits such as autism spectrum disorder.

1 January 2010 in NeuroImage
Verified
Journal Article
Closed access
HCHenk R. Cremers
Henk R. Cremers
LDLiliana R. Demenescu
Liliana R. Demenescu
AAAndré Aleman
André Aleman
RRRemco A Renken
Remco A Renken
MTMarie-José van Tol
Marie-José van Tol
KRKarin Roelofs
Karin Roelofs

23 August 2012 in Human Brain Mapping
Verified
Journal Article
Closed access
LGLinda Geerligs
Linda Geerligs
Natasha M. MauritsNatasha M. Maurits
Natasha M. Maurits
RRRemco A Renken
Remco A Renken
MLMonicque M. Lorist
Monicque M. Lorist

1 October 2008 in Human Brain Mapping
Verified
Journal Article
Closed access
PDF file
Luca FerrariniLuca Ferrarini
Luca Ferrarini
IVIlya M. Veer
Ilya M. Veer
EBEvelinda Baerends
Evelinda Baerends
MTMarie‐José van Tol
Marie‐José van Tol
RRRemco A Renken
Remco A Renken
JMJulien Milles
Julien Milles