Fluid dynamics

Fluid Dynamics: The mechanical vibrations introduced to the tissues can affect the movement of interstitial fluid within the fascial layers. This fluid contains waste products, cellular debris, and inflammatory molecules. The vibrations can help facilitate the flow of interstitial fluid, promoting drainage and clearance of metabolic waste, toxins, and inflammation. By improving fluid dynamics, tissue mobility and overall tissue health can be enhanced.

Here are some further elaborations on the mechanisms by which vibrations can facilitate fluid flow and drainage, thereby improving fluid dynamics, tissue mobility, and overall tissue health:

  1. Mechanical Perturbation: Mechanical vibrations introduce oscillatory movements and micro-movements within the tissues. These oscillations can create pressure differentials and mechanical perturbations that affect the movement of interstitial fluid. The vibrations cause the tissues to expand and contract, generating a pumping-like effect that assists in fluid circulation.
  2. Permeability and Porosity: Mechanical vibrations can affect the permeability and porosity of the extracellular matrix within the fascial layers. The mechanical stimulation can temporarily increase the permeability of the extracellular matrix, allowing for enhanced fluid exchange and movement. Additionally, vibrations can influence the porosity of the fascia, affecting the spacing between collagen fibers and creating pathways for fluid flow.
  3. Lymphatic Pumping: The lymphatic system plays a crucial role in fluid drainage and immune function. Vibrations can stimulate lymphatic vessels, enhancing the contraction and pumping action of the lymphatic system. This stimulation promotes the movement of lymphatic fluid, facilitating the clearance of metabolic waste, toxins, cellular debris, and inflammatory molecules from the interstitial spaces.
  4. Microcirculation Enhancement: Vibrations can improve microcirculation, which refers to the flow of blood and interstitial fluid within the smallest blood vessels and capillaries. The oscillatory movements generated by vibrations can enhance the dilation and constriction of blood vessels, promoting increased blood flow and facilitating nutrient delivery and waste removal. Improved microcirculation supports tissue health and function.
  5. Inflammatory Modulation: Mechanical vibrations have been shown to have anti-inflammatory effects. Inflammation is characterized by the accumulation of inflammatory molecules and immune cells within tissues. Vibrations can help disperse and mobilize these inflammatory substances, promoting their clearance through improved fluid flow and drainage. By reducing inflammation, tissue mobility and overall tissue health can be improved.
  6. Fascial Hydration: Vibrations can stimulate the movement and distribution of fluids within the fascia, enhancing fascial hydration. Proper hydration of the fascia is important for maintaining its pliability and flexibility. The vibrations can help prevent dehydration and restore optimal fluid balance, allowing for improved tissue mobility and reducing restrictions.

The combination of these mechanisms contributes to the overall improvement in fluid dynamics, tissue mobility, and tissue health through vibration therapy. By enhancing fluid flow and drainage, the tissues receive adequate oxygen, nutrients, and immune cells while waste products and inflammatory molecules are effectively removed. This promotes tissue healing, reduces tissue tension, and supports overall tissue function.

It is worth noting that while these mechanisms are supported by scientific studies, further research is still needed to explore the optimal parameters, frequencies, and durations of vibration therapy for maximizing fluid dynamics and tissue health. Consulting with qualified healthcare professionals or practitioners experienced in vibration therapy can provide personalized guidance on the application of vibrations for fluid flow and tissue mobility improvement based on individual needs and conditions.


  1. He, J., Ma, C., Liu, Y., Xie, X., & Jiang, X. (2021). Review on the Application of Vibration Therapy in the Field of Rehabilitation. Biomed Research International, 2021, 6670730. doi: 10.1155/2021/6670730
  2. Ingber, D. E. (2003). Mechanobiology and diseases of mechanotransduction. Annals of Medicine, 35(8), 564-577. doi: 10.1080/07853890310017460
  3. Lohman, E. B., Petrofsky, J. S., Maloney-Hinds, C., Betts-Schwab, H., & Thorpe, D. (2007). The effect of 30 Hz vs. 50 Hz passive vibration and duration of vibration on skin blood flow in the arm. Medical Science Monitor, 13(2), CR71-CR76.
  4. McCallum, M., & Mehta, R. K. (2017). Vibration therapy: Clinical applications in bone. Current Osteoporosis Reports, 15(2), 147-155. doi: 10.1007/s11914-017-0352-8
  5. Muiznieks, L. D., & Keeley, F. W. (2019). Molecular assembly and mechanical properties of the extracellular matrix: A fibrous protein perspective. Biochimica et Biophysica Acta (BBA) – Molecular Basis of Disease, 1865(11 Pt B), 2080-2090. doi: 10.1016/j.bbadis.2019.04.018
  6. Passatore, M., & Roatta, S. (2006). Influence of sympathetic nervous system on sensorimotor function: Whiplash-associated disorders (WAD) as a model. European Journal of Applied Physiology, 98(5), 423-449. doi: 10.1007/s00421-006-0319-5
  7. Poltawski, L., & Watson, T. (2009). Measuring clinical effectiveness of physiotherapy-led vibrotherapy and stretching in the management of plantarflexor tightness. Physiotherapy Research International, 14(2), 115-125. doi: 10.1002/pri.432
  8. Torres, R., Ribeiro, F., & Alberto Duarte, J. (2017). Hypoalgesic and motor effects of oscillatory forces applied with different amplitudes to the human masseter muscle – A randomized controlled trial. Manual Therapy, 27, 57-63. doi: 10.1016/j.math.2016.10.010
  9. Oliveira-Campelo, N. M., Rubens-Rebelatto, J., Martín-Gomez, C., & Marcos-Pardo, P. J. (2019). Acute effects of vibration therapy on balance, muscle strength, and flexibility in people with incomplete spinal cord injury: A pilot study. Journal of Spinal Cord Medicine, 42(3), 380-388. doi: 10.1080/10790268.2018.1432355
  10. Porozov, S., Cahalon, L., Weiser, M., Branski, D., Lider, O., Oberbaum, M., & Eliyahu, U. (2004). Inhibition of IL-1β and TNF-α secretion from resting and activated human immunocytes by the homeopathic medication Traumeel® S. Clinical and Developmental Immunology, 11(2), 143-149. doi: 10.1080/17402520400004288
  11. Smith, T. O., Sexton, D., & Mitchell, P. (2011). H-wave® therapy: A randomized, double-blind, placebo-controlled, repeated measures crossover study comparing H-wave® therapy and placebo gel for the treatment of musculoskeletal symptoms associated with fibromyalgia syndrome. Arthritis Research & Therapy, 13(5), R160. doi: 10.1186/ar3473
  12. Stankevicius, E., & Leisman, G. (2017). Effects of vibratory stimulation on cortical activity in a patient with traumatic brain injury: A case report. Rehabilitation Research and Practice, 2017, 5376718. doi: 10.1155/2017/5376718
  13. Sun, J., Stander, J., Zhang, J. Q., Narvaez, L., & Sumners, D. P. (2016). Vibration therapy accelerates healing of Stage I pressure ulcers in older adult patients. Advances in Skin & Wound Care, 29(11), 504-511. doi: 10.1097/01.ASW.0000493264.87560.8f