henhaobio
Sign in

Human Brain MappingNeurosciencePeer-reviewed journal article

Test-retest reliability of functional connectivity networks during naturalistic fMRI paradigms

Jiahui WangiD, Yudan ReniD, Xintao HuiD, Vinh Thai NguyeniD, Lei GuoiD, Junwei HaniD, Christine Cong GuoiD

PDFDOIPreprint

Abstract

Functional connectivity analysis has become a powerful tool for probing the human brain function and its breakdown in neuropsychiatry disorders. So far, most studies adopted resting state paradigm to examine functional connectivity networks in the brain, thanks to its low demand and high tolerance that are essential for clinical studies. However, the test-retest reliability of resting state connectivity measures is moderate, potentially due to its low behavioral constraint. On the other hand, naturalistic neuroimaging paradigms, an emerging approach for cognitive neuroscience with high ecological validity, could potentially improve the reliability of functional connectivity measures. To test this hypothesis, we characterized the test-retest reliability of functional connectivity measures during a natural viewing condition, and benchmarked it against resting state connectivity measures acquired within the same functional magnetic resonance imaging (fMRI) session. We found that the reliability of connectivity and graph theoretical measures of brain networks is significantly improved during natural viewing conditions over resting state conditions, with an average increase of almost 50% across various connectivity measures. Not only sensory networks for audio-visual processing become more reliable, higher order brain networks, such as default mode and attention networks, also appear to show higher reliability during natural viewing. Our results support the use of natural viewing paradigms in estimating functional connectivity of brain networks, and have important implications for clinical application of fMRI.

Citations
155
FWCI
7.38
Field percentile
top 2%

Reproducibility ledger

Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.

Sign in to file a reproducibility report.

Similarity Map
SelectedSame fieldCross-field
THISKröll '26Vale '26O’Connor '17Wang '21Tozzi '20Kang '26
92% semantic matchNeuroscience
Jean‐Philippe Kröll, Patrick Friedrich, Xuan Li+11 more·PLoS ONE·May 6, 2026