Hi,
This is my first “real” journey into PEMF devices. I currently have a second hand Bemer that hasn’t done much so I am looking to purchase either an M1 or a C5 specifically for helping my 3 yr old daughter’s Rett Syndrome (r133c mutation).
From the studies I have read, it looks like this specific mutation is highly affected by chromatin/mitochondria dysfunction and I was wondering if
@Bob or anyone else have come across any protocols for treating chromatin or mitochondria dysfunction/Rett syndrome or suggestions on which device/protocols could be helpful.
Reasons I am looking at M1 vs C5 is the number of coils that can be used as I am looking to place them under a pillow when she is sleeping. Daytime therapy is not an option as she will not tolerate having anything on her head. I was thinking the M1 with a 2x2 or single coils could be good to target specific brain regions but might be difficult to put in place when she is sleeping. The C5 with the pad coil would work nicely under a pillow but is stimulating the entire head a good/bad idea?
Regarding protocols, I understand low and slow is the key but my daughter is non-verbal and quite “autistic” so the only feedback I could get would be observational. Any suggestions as to which protocols could be a good start?
I plan on diving into the literature to see what protocols are being used once I decide on which unit to purchase.
Thanks for any help!
What Perplexity AI has to say when asked “Can PEMF improve chromatin dysfunction in r133c” :
PEMF (Pulsed Electromagnetic Field) therapy shows potential in improving chromatin dysfunction, including conditions associated with mutations like R133C in the MeCP2 gene. Here are the ways PEMF may help address chromatin dysfunction specifically related to this mutation:
Mechanisms of Action
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Epigenetic Modifications:
- PEMF therapy has been shown to induce epigenetic changes that can enhance gene expression and chromatin structure. Studies suggest that PEMF can promote neurogenesis by affecting regulatory sequences of genes involved in stem cell proliferation and differentiation, potentially counteracting the dysregulation caused by the R133C mutation[4].
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Cellular Stress Reduction:
- The R133C mutation can lead to increased cellular stress and inflammation, which negatively impact chromatin integrity. PEMF therapy is known to reduce oxidative stress and enhance cellular health by modulating ion fluxes and improving mitochondrial function, thereby potentially alleviating some of the stress effects on chromatin[1][5].
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Enhancement of Gene Expression:
- By promoting a more favorable chromatin environment, PEMF may facilitate increased accessibility for transcription factors, thereby enhancing gene expression. This is particularly relevant for genes that may be downregulated due to the R133C mutation’s impact on MeCP2 function[4][6].
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Neuroprotective Effects:
- In models of neurodegenerative diseases, PEMF has demonstrated protective effects against cognitive decline and neuronal damage. These neuroprotective properties could help maintain neuronal health in conditions affected by MeCP2 mutations, potentially improving overall chromatin function within neuronal cells[6].
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Stem Cell Activation:
- PEMF has been shown to influence stem cell biology positively, promoting neurogenic and osteogenic processes. This activation could help restore normal cellular functions disrupted by chromatin dysfunction associated with the R133C mutation[4].
Conclusion
PEMF therapy may improve chromatin dysfunction related to the R133C mutation in MeCP2 through mechanisms such as inducing beneficial epigenetic modifications, reducing cellular stress, enhancing gene expression, providing neuroprotective effects, and activating stem cell processes. These actions collectively contribute to restoring normal chromatin dynamics and cellular function, which could be particularly beneficial in managing conditions like Rett syndrome associated with this mutation.