Thomas Houweling
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Thomas Houweling has a total of 3 co-authors. Here are the top co-authors by number of shared publications:
- Alexis Hervais-Adelman
Zurich Linguistics Centre, University of Zurich, Zurich, Switzerland
3 shared publications - Robert Becker
Experimental Renal and Cardiovascular Research, Department of Nephropathology, Institute of Pathology, Friedrich-Alexander-Universität Erlangen-Nürnberg (FAU)
2 shared publications Robert Becker
Neurolinguistics, Department of Psychology, University of Zürich, Binzmühlestrasse 14, 8050 Zürich, Switzerland
1 shared publication
Latest Publications
- 17 November 2023
- Published by Elsevier in Brain and Language
- Vol. 247, 105356
Elevated pre-target EEG alpha power enhances the probability of comprehending weakly noise masked words and decreases the probability of comprehending strongly masked words
- 17 November 2023
- Published by Elsevier in Brain and Language
- Vol. 247, 105356
Elevated pre-target EEG alpha power enhances the probability of comprehending weakly noise masked words and decreases the probability of comprehending strongly masked words
- Open Access
- 1 March 2020
- Published by Elsevier in Brain and Language
- Vol. 202, 104727
The noise-resilient brain: Resting-state oscillatory activity predicts words-in-noise recognition
- 1 March 2020
- Published by Elsevier in Brain and Language
- Vol. 202, 104727
Open AccessThe noise-resilient brain: Resting-state oscillatory activity predicts words-in-noise recognition
- Open Access
The Noise-Resilient Brain: Resting-State Oscillatory Activity Predicts Words-In-Noise Recognition
The role of neuronal oscillations in the processing of speech has recently come to prominence. Since resting-state (RS) brain activity has been shown to predict both task-related brain activation and behavioural performance, we set out to establish whether inter-individual differences in spectrally-resolved RS-MEG power are associated with variations in words-in-noise recognition in a sample of 88 participants made available by the Human Connectome Project. Positive associations with resilience to noise were observed with power in the range 21 and 29Hz in a number of areas along the left temporal gyrus and temporo-parietal association areas peaking in left posterior superior temporal gyrus (pSTG). Significant associations were also found in the right posterior superior temporal gyrus in the frequency range 30 to 40Hz. We propose that individual differences in words-in-noise performance are related to baseline excitability levels of the neural substrates of phonological processing. Highlights: Power of resting MEG activity predicts Words-In-Noise recognition performance Significant associations in higher beta and lower gamma frequency band Strongest in left-lateralised perisylvian cluster peaking in posterior STG Effects are spectrally and spatially consistent with phoneme-level processing
Open AccessThe Noise-Resilient Brain: Resting-State Oscillatory Activity Predicts Words-In-Noise Recognition
The role of neuronal oscillations in the processing of speech has recently come to prominence. Since resting-state (RS) brain activity has been shown to predict both task-related brain activation and behavioural performance, we set out to establish whether inter-individual differences in spectrally-resolved RS-MEG power are associated with variations in words-in-noise recognition in a sample of 88 participants made available by the Human Connectome Project. Positive associations with resilience to noise were observed with power in the range 21 and 29Hz in a number of areas along the left temporal gyrus and temporo-parietal association areas peaking in left posterior superior temporal gyrus (pSTG). Significant associations were also found in the right posterior superior temporal gyrus in the frequency range 30 to 40Hz. We propose that individual differences in words-in-noise performance are related to baseline excitability levels of the neural substrates of phonological processing. Highlights: Power of resting MEG activity predicts Words-In-Noise recognition performance Significant associations in higher beta and lower gamma frequency band Strongest in left-lateralised perisylvian cluster peaking in posterior STG Effects are spectrally and spatially consistent with phoneme-level processing