Pulse Routine: Optimizing Post-ACL Reconstruction Recovery

Optimizing Post-ACL Reconstruction Recovery with Focal Vibration and Kinesiology Tape

Recovering from anterior cruciate ligament reconstruction (ACLR) is a complex journey that demands innovative approaches. Recent research reveals that combining focal vibration therapy with kinesiology tape can enhance recovery, offering a powerful synergy in optimizing sensorimotor function.

The Challenge of ACL Recovery

Annually, around 250,000 ACL injuries occur in the USA, leading to a significant risk of knee osteoarthritis and associated complications. Despite traditional rehabilitation efforts, challenges like quadriceps weakness, postural instability, and neuromotor hypofunction (a condition in which an individual has difficulty or limitations controlling and coordinating a movement) persist, largely due to neural inhibition known as arthrogenic muscle inhibition (AMI). Diekfuss and colleagues have shown through a prospective study that athletes who experience ACL injuries exhibit changes in brain connectivity, as seen on fMRI scans. Specifically, the regions involved in sensorimotor control and error correction are differently connected compared to those in healthy athletes. Let’s discuss how we can target a ‘nervous system’ approach to ACLR recovery.

 

The Role of Kinesiology Tape

 

Kinesiology tape, such as RockTape, has shown promise in ACL recovery:

 

  • Pain Reduction: KT can alleviate post-operative pain by increasing lymphatic drainage and decreasing pressure on pain receptors. This reduction in discomfort can also have psychological benefits, boosting confidence and reducing fear of movement.
  • Swelling Control: Applied strategically, KT promotes lymphatic drainage, helping to reduce knee swelling common in post-ACLR patients.
  • Proprioception and Balance: The tactile stimulus provided by kinesiology tape can help draw attention to the targeted area by stimulating local mechanoreceptors. This stimulation can contribute to refining the body's sensory maps related to that region. While KT alone may not fully restore proprioceptive deficits, it can enhance balance and improve functional performance, supporting a more comprehensive recovery process

The Promise of Focal Vibration Therapy

Focal muscle vibration (FMV) introduces micro-stretching-shortening cycles to specific muscles, offering several therapeutic advantages:

 

  • Neuromotor Enhancement: FMV can significantly improve hamstring and quadriceps strength, which is crucial for joint stabilization in ACL patients.
  • Postural Control: Though results on postural control are mixed, using FMV can enhance motor unit synchronization and intramuscular coordination, contributing to better neuromuscular control.
  • Circulatory Benefits: By enhancing blood flow and muscle temperature, FMV supports quicker recovery and muscle readiness.

The Synergy: One Plus One Equals Three

By integrating KT and FMV with devices like the Pulse Device, you can address both mechanical and neurological aspects of recovery:

 

  1. Sensorimotor Optimization: Utilizing KT alongside FMV can boost proprioceptive feedback and neuromuscular activation, tackling the deficiencies in balance and strength that often follow ACLR.
  2. Pain and Swelling Management: KT helps manage post-surgical swelling, while FMV aids in pain modulation and enhances motor recovery.
  3. Confidence and Functionality: This combined approach provides not just physical support but also psychological reinforcement, encouraging patients to engage in more complex movements with confidence.

Practical Application

Step 1: Apply RockTape strategically post-surgery to target the knee area, focusing on pain management and swelling reduction.


Step 2: Use the Pulse Device’s Rehab -> Strength Recovery -> ACL Rehab setting to deliver focused vibration to the quadriceps and hamstrings.



The Set Up: Step by Step Tape Preparation

Conclusion

The integration of focal vibration therapy with kinesiology tape offers a smarter way to address the physical and neural deficits following ACL reconstruction. These combined modalities can enhance neuromuscular control, decrease pain and swelling, and promote a faster, more complete recovery.

 

Pulse Devicewww.pulsedevice.com

RockTapewww.rocktape.com

 

References

1.         Fattorini L, Rodio A, Filippi GM, Pettorossi VE. Effectiveness of Focal Muscle Vibration in the Recovery of Neuromotor Hypofunction: A Systematic Review. J Funct Morphol Kinesiol. 2023 Jul 25;8(3):103.

2.         Labianca L, Andreozzi V, Princi G, Princi AA, Calderaro C, Guzzini M, Ferretti A. The effectiveness of Kinesio Taping in improving pain and edema during early rehabilitation after Anterior Cruciate Ligament Reconstruction: A Prospective, Randomized, Control Study. Acta Biomed. 2022 Jan 19;92(6)

3.         Chaput M, Ness BM, Lucas K, Zimney KJ. A Multi-Systems Approach to Human Movement after ACL Reconstruction: The Nervous System. Int J Sports Phys Ther. 2022 Jan 1;17(1):47-59.

4.         Coulondre C, Souron R, Rambaud A, Dalmais É, Espeit L, Neri T, Pinaroli A, Estour G, Millet GY, Rupp T, Feasson L, Edouard P, Lapole T. Local vibration training improves the recovery of quadriceps strength in early rehabilitation after anterior cruciate ligament reconstruction: A feasibility randomised controlled trial. Ann Phys Rehabil Med. 2022 Jun;65(4)

5.         Chen P, Wang L, Zhou W, Wang L (2024) Efficacy on knee function of Kinesio taping among individuals with anterior cruciate ligament reconstruction: A systematic review. PLoS ONE 19(2)

6.         Principles of motor learning to support neuroplasticity after ACL injury: implications for optimizing performance and reducing risk of second ACL injury. Gokeler A., Neuhaus D., Benjaminse A., Grooms D. R., Baumeister J. 2019Sports Med. 49(6):853–865

7.         Alterations in knee sensorimotor brain functional connectivity contributes to ACL injury in male high-school football players: a prospective neuroimaging analysis. Diekfuss J. A., Grooms D. R., Nissen K. S., Schneider D. K., Foss K. D. B., Thomas S., Bonnette S., Dudley J. A., Yuan W., Reddington D. L., Ellis J. D., Leach J., Gordon M., Lindsey C., Rushford K., Shafer C., Myer G. D. 2020Braz J Phys Ther. 24(5):415–423.