Effect of resistance exercise training on plasma neurofilaments in multiple sclerosis: a proof of concept for future designs.
Patricia MuleroSergio Maroto-IzquierdoNatán RedondoHugo Gonzalo-BenitoAlba Chavarría-MirandaHugo CalvoMaría I CaberoMarita HernandezMaría Luisa NietoNieves TellezPublished in: Neurological sciences : official journal of the Italian Neurological Society and of the Italian Society of Clinical Neurophysiology (2023)
Multiple sclerosis (MS) is a dysimmune and neurodegenerative disease of the central nervous system that continues to be one of the main causes of non-traumatic disability in young people despite the recent availability of highly effective drugs. Exercise-based interventions seem to have a positive impact on the course of the disease although pathophysiological mechanisms responsible for this benefit remain unclear. This is a longitudinal study to examine the effects of a short-term training program on neurofilament plasma levels, a biomarker of axonal destruction, measured using the ultrasensitive single molecule array (SiMoA). Eleven patients completed a 6-week supervised resistance-training program of 18 sessions that consisted of 3 sets of 8-10 repetitions of 7 exercises. Median plasma neurofilament levels significantly decreased from baseline (6.61 pg/ml) to 1 week after training intervention (4.44 pg/ml), and this effect was maintained after 4 weeks of detraining (4.38 pg/ml). These results suggest a neuroprotective effect of resistance training in this population and encourage us to investigate further the beneficial impact of physical exercise and to emphasize the importance of lifestyle in MS.
Keyphrases
- multiple sclerosis
- resistance training
- single molecule
- body composition
- high intensity
- spinal cord injury
- cerebrospinal fluid
- end stage renal disease
- physical activity
- white matter
- mass spectrometry
- newly diagnosed
- ejection fraction
- randomized controlled trial
- chronic kidney disease
- prognostic factors
- peritoneal dialysis
- virtual reality
- atomic force microscopy
- skeletal muscle
- clinical trial
- living cells
- ms ms
- weight loss
- high throughput
- high resolution
- subarachnoid hemorrhage
- brain injury
- blood brain barrier