×

Select your
use case:

Choose below:

I don't have any specific use case

Unlock 15% Off

When you order today &
enter your email below:

Decline Offer

Offer excludes replacement pads & discount items.

Use Code

GetStarted

at checkout to receive
15% off your first order
when ordered today.

Offer excludes replacement pads.

The Complementary Benefits of PowerDot + HyperIce

Muscle RecoveryTechnological advancements have provided accessibility for everyone to train, perform, and recover like professional athletes. However, with a new gadget or device coming out and claiming to be the next best thing, it is companies like PowerDot and HyperIce have set the standard for enhancing human performance and muscle recovery.

Enhancing human performance consists of improving endurance, strength, and power. Muscle recovery is displayed as the return to normal physiological conditions after fatigue, which is demonstrated as any decline in muscular performance [5] [3]. Recovering from delayed onset muscle soreness may take up-to several minutes to several days [4]. The classical symptoms of DOMS strength losses, pain, swelling, tenderness or stiffness, loss of full range of motion, flexibility, force production and mobility.

PowerDot and HyperIce both have products that when used in conjunction with another has the potential to further enhance human performance and muscle recovery by enhancing muscular endurance, strength, and power as well as eliminating the negative effects associated with muscular fatigue and soreness.

Muscle Recovery

Muscle Recovery

Advancements in muscle recovery technology are of paramount importance as muscle fatigue and soreness result in detriments of physical performance and muscle function [4,5]. Inflammation and muscle tightness/stiffness, triggering pain receptors, cause pain and soreness impairing human movement. By incorporating PowerDot technology as a recovery modality, users get the added benefits of both Neuromuscular Electrical Stimulation (NMES) and Transcutaneous Electrical Nerve Stimulation (TENS). NMES stimulates muscle fiber contraction creating an electro-induced hyperfusion [6]. This increases oxygenated muscular blood flow, washing out and clearing away cellular debris that causes pain and soreness [6]. On the other hand, TENS therapy reduces central neuron sensitization and causes the release of endorphins which shut down or block the flow of pain signals from the muscles to the brain [6,7]. Complementary to the muscle recovery benefits of NMES and TENS, HyperIce intuitively utilizes percussion and vibration therapy to more directly attack muscle stiffness and the associated pain and impairments in joint range of motion. These modalities of muscle recovery apply pressure directly to trigger points (muscle knots) providing rapid vibrations that desensitize muscle proprioceptors allowing for the muscle to fully relax and lengthen [8,9] .This results in greater and improved range of motion as well as a reduction in physical pain [10,11,12]. As noted, PowerDot and HyperIce implement different therapeutic muscle recovery modalities that when used in conjunction with one another, produce longer lasting analgesic (pain/soreness relief) effects than if used by themselves [13]. In essence, the combined application of the technologies provided by PowerDot and HyperIce further enhance muscle recovery by reducing pain and stiffness allowing for optimal human movement.

Muscle Recovery

Human Performance: Strength and Power Production

Advanced muscular human performance requires strength and power. It takes more than just a proper warm-up and exercise training to reach the body’s full performance potential. Both PowerDot and HyperIce technologies have the capacity to optimize training and competition performance beyond the scope of what is traditionally thought. By stimulating muscular contraction of both Type I (slow-twitch) and Type II (fast-twitch) fibers, PowerDot technology induces Post-Activation Potentiation (PAP) which causes greater muscle fiber recruitment and a faster contraction cycling rate [14]. HyperIce technology works similarly as when placed on the motor point of a muscle (the most innervated part of the muscle), motor unit discharge and synchronisation increase [15]. Though physiologically different, both technologies elicit faster and more forceful muscular contractions thereby increasing muscular strength and power production.

Muscle Recovery

Complementary… Not Competition

Both PowerDot and HyperIce are on similar missions to improve muscle recovery and enhance human performance. As demonstrated above, both companies utilize advanced therapeutic technology to achieve the goals of their mission. When used complementary with one another, the technology from PowerDot and HyperIce has the potential to elicit a more well-rounded physiological response to optimize both muscle recovery and human performance.

References

1. Hedayatpour, N., Falla, D., Arendt-Nielsen, L., & Farina, D. (2010). Effect of delayed-onset muscle soreness on muscle recovery after a fatiguing isometric contraction. Scandinavian Journal of Medicine & Science in Sports, 20(1), 145-153. [Link]

2. Allen, D. G., Lamb, G. D., & Westerblad, H. (2008). Skeletal muscle fatigue: cellular mechanisms. Physiological Reviews, 88(1), 287-332. [Link]

3. Martin, V., Millet, G. Y., Lattier, G., & Perrod, L. (2004). Effects of recovery modes after knee extensor muscles eccentric contractions. Medicine & Science in Sports & Exercise, 36(11), 1907-1915. [Link]

4. Barnett, A. (2006). Using recovery modalities between training sessions in elite athletes. Sports Medicine, 36(9), 781-796. [Link]

5. Welsh, R. S., Davis, J. M., Burke, J. R., & Williams, H. G. (2002). Carbohydrates and physical/mental performance during intermittent exercise to fatigue. Medicine & Science in Sports & Exercise, 34(4), 723-731. [Link]

6. DeSantana, J. M., Walsh, D. M., Vance, C., Rakel, B. A., & Sluka, K. A. (2008). Effectiveness of transcutaneous electrical nerve stimulation for treatment of hyperalgesia and pain. Current Rheumatology Reports, 10(6), 492. [Link]

7. Cox, P. D., Kramer, J. F., & Hartsell, H. (1993). Effect of different TENS stimulus parameters on ulnar motor nerve conduction velocity. American Journal of Physical Medicine & Rehabilitation, 72(5), 294-300. [Link]

8. Issurin, V. B., Liebermann, D. G., & Tenenbaum, G. (1994). Effect of vibratory stimulation training on maximal force and flexibility. Journal of Sports Sciences, 12(6), 561-566. [Link]

9. Annino, G., Iellamo, F., Palazzo, F., Fusco, A., Lombardo, M., Campoli, F., & Padua, E. (2017). Acute changes in neuromuscular activity in vertical jump and flexibility after exposure to whole body vibration. Medicine, 96(33). [Link]

10. Kayoda, K. A. (2019). The Influence of the Hypervolt™ on Shoulder Range of Motion, Strength, and Pain following Rotator Cuff Repair Surgery (Doctoral dissertation, Azusa Pacific University). [Link]

11. Koeda, T., Ando, T., Inoue, T., Kamisaka, K., Tsukamoto, S., Torikawa, T., & Mizumura, K. (2003). A trial to evaluate experimentally induced delayed onset muscle soreness and its modulation by vibration. Environmental Medicine: annual report of the Research Institute of Environmental Medicine, Nagoya University, 47, 22-25. [Link]

12. Lau, W. Y., & Nosaka, K. (2011). Effect of vibration treatment on symptoms associated with eccentric exercise-induced muscle damage. American Journal of Physical Medicine & Rehabilitation, 90(8), 648-657. [Link]

13. Guieu, R., Tardy-Gervet, M. F., & Roll, J. P. (1991). Analgesic effects of vibration and transcutaneous electrical nerve stimulation applied separately and simultaneously to patients with chronic pain. Canadian Journal of Neurological Sciences, 18(2), 113-119. [Link]

14. Miyamoto, N. (2012). Warm-up procedures to enhance dynamic muscular performance. The Journal of Physical Fitness and Sports Medicine, 1(1), 155-158. [Link]

15. Shinohara, M., Moritz, C. T., Pascoe, M. A., & Enoka, R. M. (2005). Prolonged muscle vibration increases stretch reflex amplitude, motor unit discharge rate, and force fluctuations in a hand muscle. Journal of Applied Physiology, 99(5), 1835-1842. [Link]