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Long-term mindfulness meditation increases occurrence of sensory and attention brain states.

Daniel Yochai Panitz, Avi Mendelsohn, Joana Cabral, Aviva Berkovich-Ohana

Front Hum Neurosci January 6, 2025 DOI: 10.3389/fnhum.2024.1482353 (opens in new tab)

Study at a glance

AI-extracted from the abstract
Characteristics Observational cohort Peer reviewed
Population Experienced meditators and meditation-naïve participants
Intervention Mindfulness meditation
Topics Meditation Neuroplasticity
Keywords Mindful practice Contemplation Presence Attentiveness Brain science Neurobiology Brain research Cognitive neuroscience Brain imaging Brain change Brain reshaping Brain adaptation Cognitive function Attention Focus Awareness Mental clarity Brain function Cognitive enhancement
Citations 5
Key findings Experienced meditators spend more time in brain states involving synchrony among sensory cortical regions and less time in frontal-lobe states associated with higher cognitive functions during rest.

Abstract

Interest has been growing in the use of mindfulness meditation (MM) as a therapeutic practice, as accumulating evidence highlights its potential to effectively address a range of mental conditions. While many fMRI studies focused on neural activation and functional connectivity during meditation, the impact of long-term MM practice on spontaneous brain activity, and on the expression of resting state networks over time, remains unclear. Here, intrinsic functional network dynamics were compared between experienced meditators and meditation-naïve participants during rest. Our analysis revealed that meditators tend to spend more time in two brain states that involve synchrony among cortical regions associated with sensory perception. Conversely, a brain state involving frontal areas associated with higher cognitive functions was detected less frequently in experienced meditators. These findings suggest that, by shifting attention toward enhanced sensory and embodied processing, MM effectively modulates the expression of functional network states at rest. These results support the suggested lasting effect of long-term MM on the modulation of resting-state networks, reinforcing its therapeutic potential for disorders characterized by imbalanced network dynamics. Moreover, this study reinforces the utility of analytic approaches from dynamical systems theory to extend current knowledge regarding brain activity and evaluate its response to interventions.

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