Valentina Jelincic

@valentinaj29.bsky.social

Postdoc at KU Leuven (Health Psychology - OGP) Breathing, interoception and neuroscience enthusiast

📣Job alert! Research Group Health Psychology at KU Leuven is hiring a PhD student for an exciting 4-year project on slow breathing and stress recovery😮‍💨 If you (are about to) have a master degree in psychology and an interest in psychophysiology and stress research, you may be who we are looking for!

PhD Position: Keep calm and breathe through it: The effects and mechanisms of slow breathing on stress recovery

Join us—your curiosity matters

kuleuven.be

100% agreed, so important to understand what e.g. slow breathing is actually doing before widely implementing these interventions. Currently a couple of projects in the pipeline looking into the mechanisms of SB beyond HRV and mindfulness, hopefully the funding comes through! 🤞

Daniel S. Kluger@danlikesbrains.bsky.social · 9mo ago

New perspective paper out now in @plosbiology.org with a few thoughts on #interoception: What it is (or rather is not), how it can inform therapeutic interventions, and where (we think) the field of brain-body #neuroskyence has yet to find more solid ground to build on. doi.org/10.1371/jour...

So happy this paper is now out in @plosbiology.org! We investigated whether fluctuations in MEPs can be explained by phasic influences from internal bodily rhythms, and whether this might happen independently per organ system. #interoception #neuroskyence

PLOS Biology@plosbiology.org · 9mo ago

How do internal bodily rhythms influence #brain activity & motor function? @tahnee-engelen.bsky.social &co show that #cardiac, #respiratory & #gastric rhythms independently modulate motor excitability, revealing distinct #interoceptive profiles across individuals @plosbiology.org 🧪 plos.io/4nMtpLT

Top: Experimental set up. Single pulses of TMS were applied to the hand area of the right primary motor cortex with an inter-pulse interval randomized between 6 and 10 s. Simultaneously, the neuronavigated coil position (yellow), electrocardiogram (red), respiratory signal (blue), electrogastrogram (green), and electromyography from the left hand (gray) were recorded. The figure shows traces of a 20-s time segment from one participant of the cardiac (raw), respiratory (filtered), gastric (filtered), and EMG (raw) signals. The experimental measure was the Motor Evoked Potential amplitude measured on a hand muscle (first dorsal interosseous), analyzed against the phase of the cardiac, respiratory, and gastric rhythms. Note that the three rhythms have very different periods (~1 s for the heart, ~ 5 s for respiration, and ~20 s for the gastric rhythm). Bottom: Artwork illustrating how rhythms of the internal organs interact with the moment-to-moment fluctuations observed in corticospinal motor excitability. Image depicts an outline of a brain with representations of the three rhythmic organs influencing the motor system: the heart, lungs, and stomach. Image credit: Tahnée Engelen.