Large-scale genomic study reveals robust activation of the immune system following advanced Inner Engineering meditation retreat.
Vijayendran ChandranMei-Ling BermúdezMert KokaBrindha ChandranDhanashri PawaleRamana V VishnubhotlaSuresh AlankarRaj K MaturiBalachundhar SubramaniamSenthilkumar SadhasivamPublished in: Proceedings of the National Academy of Sciences of the United States of America (2021)
The positive impact of meditation on human well-being is well documented, yet its molecular mechanisms are incompletely understood. We applied a comprehensive systems biology approach starting with whole-blood gene expression profiling combined with multilevel bioinformatic analyses to characterize the coexpression, transcriptional, and protein-protein interaction networks to identify a meditation-specific core network after an advanced 8-d Inner Engineering retreat program. We found the response to oxidative stress, detoxification, and cell cycle regulation pathways were down-regulated after meditation. Strikingly, 220 genes directly associated with immune response, including 68 genes related to interferon signaling, were up-regulated, with no significant expression changes in the inflammatory genes. This robust meditation-specific immune response network is significantly dysregulated in multiple sclerosis and severe COVID-19 patients. The work provides a foundation for understanding the effect of meditation and suggests that meditation as a behavioral intervention can voluntarily and nonpharmacologically improve the immune response for treating various conditions associated with excessive or persistent inflammation with a dampened immune system profile.
Keyphrases
- immune response
- oxidative stress
- genome wide
- cell cycle
- genome wide identification
- multiple sclerosis
- transcription factor
- protein protein
- dendritic cells
- copy number
- cell proliferation
- randomized controlled trial
- dna methylation
- bioinformatics analysis
- poor prognosis
- toll like receptor
- sars cov
- dna damage
- diabetic rats
- physical activity
- quality improvement
- weight loss
- binding protein
- heat shock
- endoplasmic reticulum stress
- pluripotent stem cells