Quantitative EEG Reveals Cognitive and Motor Restoration After Biophoton Treatment in Chronic Stroke
DOI:
https://doi.org/10.47363/JNRRR/2025(7)227Keywords:
Chronic Stroke, Biophoton Therapy, Electroencephalography (EEG), Neuroplasticity, Event Related Potentials (ERP), Cognitive RehabilitationAbstract
Background: Chronic stroke is a leading cause of long-term neurological disability, with limited therapeutic options for restoring brain function beyond the acute recovery window. Recent advances in biophoton therapy suggest a novel approach to promote neuroplasticity through non-invasive, energybased mechanisms. This study aimed to evaluate the neurophysiological effects of strong biophoton generator therapy in patients with chronic stroke using quantitative EEG (qEEG) and behavioral metrics.
Methods: Five patients aged 63-77 years with confirmed chronic stroke received nightly exposure to four strong biophoton generators for 4 consecutive weeks. EEG recordings were acquired at baseline, Week 2, and Week 4 using the BrainView system. Primary outcomes included posterior alpha frequency, theta/beta ratio, frontal alpha asymmetry, and event-related potentials (P2, P3, P3b). Secondary outcomes included reaction time, error rate, and patient reported symptoms. EEG data were analyzed longitudinally to assess progressive neurofunctional change.
Results: Across patients, biophoton therapy was associated with increased posterior alpha frequency (mean +0.3–0.5 Hz), reduced theta/beta ratios (mean –0.05 to –0.1), and shortened P3 and P3b latencies (mean –16 to –20 ms), indicating enhanced cortical processing and attentional regulation. Behavioral improvements included reduced reaction time variability, fewer missed responses, and self-reported improvements in balance and strength. Placebo-treated control data showed no significant EEG or behavioral change.
Conclusion: Biophoton therapy may stimulate measurable recovery in chronic stroke patients, as reflected by improved EEG biomarkers and cognitive behavioral outcomes. These findings highlight the potential of bioenergetic interventions to activate latent neural plasticity, offering a promising nonpharmacological option for post-stroke rehabilitation.