Regenerative Aspects of Energy Based Devices
Methods/Technique: A combination of transcutaneous RF and targeted ultrasound was used in an animal study n=12. HAS-1 and HAS-2 were stimulated, and the degree of increase in intradermal HA was measured by PCR, and MALDI-TOF. Serial SEM was used to evaluate neocollagenesis and angiogenesis of adipose stroma at 1 and 3 month post treatment with subdermal RF. Muscle enhancement with combined HIFEM and synchronous RF was evaluated with immunofluorescence at 1 and three months following 4 weekly treatments.
Results/Complications: Biostimulation of all soft tissue layers can greatly enhance clinical outcomes. Device regeneration of skin can be achieved with a transcutaneous device that generates a 71% increase in HA as measured by PCR, and by 224% as measured with MALDI-TOF. SEM analysis shows regeneration of a three dimensional structural support scaffold becoming strongly evident three months after a single treatment. Targeted muscle improvement of a 30.2% increase in myosatellite cells was found following four treatments of HIFEM plus synchronized RF. Increase of muscle thickness was measured at 25.8 % at 3 months post-treatment.
Conclusion: Biostimulation of all soft tissue layers can greatly enhance clinical outcomes. Device regeneration of skin can be achieved with a transcutaneous device that generates a 71% increase in HA as measured by PCR, and by 224% as measured with MALDI-TOF. SEM analysis shows regeneration of a three dimensional structural support scaffold becoming strongly evident three months after a single treatment. Targeted muscle improvement of a 30.2% increase in myosatellite cells was found following four treatments of HIFEM plus synchronized RF. Increase of muscle thickness was measured at 25.8 % at 3 months post-treatment.
