The Overlooked Connection

When people think about leg strength, they usually think about speed, power, or athletic performance. Emerging research suggests that muscle strength—especially in the legs—may play an important role in brain health too. [2,3,7]

The brain and body are deeply connected. Skeletal muscle doesn’t just move you; it behaves as a metabolic and signaling organ, sending information to the brain through blood flow, hormones, and other chemical messengers. [2]

Large observational studies in middle-aged and older adults show a pattern: people with greater muscle strength tend to have a lower risk of developing dementia and experience slower cognitive decline over time. Staying physically active and maintaining fitness are also linked with healthier brain structure and better cognitive performance as we age. [1,5,6]

One long-term twin study found that leg strength in midlife predicted better cognitive aging over a ten-year period, suggesting that maintaining lower-body strength may play a role in protecting brain function later in life. [7,3]

Why Leg Strength Matters

Leg muscles are among the largest muscle groups in the body. When they work—during walking, squatting, climbing stairs, or running—they trigger several physiological responses that may benefit the brain. [2]

Improved circulation

Exercise involving large muscle groups increases cardiovascular output and brain blood flow, helping deliver oxygen and nutrients and support vascular health, which is closely tied to cognitive function. [5,6]

Muscle-to-brain signaling

Active muscles release chemical messengers called myokines that can influence inflammation, metabolism, and neural function, and may help support neuron growth, synaptic plasticity, and brain repair. [2]

Cognitive and neurochemical benefits

Resistance training and regular physical activity have been associated with changes in brain chemistry and electrical activity related to memory and cognition, and with better cognitive performance in older adults. [4,6]

Translation:
Strong legs don’t just move you better. They may also help your brain stay healthier, especially as you age.

The Role of Resistance Training

Resistance training is one of the most efficient ways to build and maintain muscle strength, especially in the lower body. It can be done with bodyweight, free weights, machines, or resistance bands and can be scaled to almost any fitness level. [5]

Research in older adults and people with cognitive impairment suggests that resistance exercise can improve strength, functional capacity, and may offer modest cognitive benefits by improving blood flow, reducing inflammation, and promoting neurotrophic factors like BDNF. While it cannot guarantee prevention of dementia, it appears to be a promising strategy to support overall brain and body health across the lifespan. [1,2,3,4]

Translation:
Lifting isn’t just for performance or aesthetics anymore. It’s one of the most effective levers you can pull for long-term brain and body health.

Only Have 15 Minutes?

No gym. No equipment. No problem! Just 15–30 minutes and a bit of space. That’s enough to train your legs—and challenge your brain with coordination, balance, and effort.

Here are five leg exercises that will train both your body and your brain:

Squats
Targets quads, glutes, and core while reinforcing motor control and neutral alignment.

Step-ups
Single-leg strength and dynamic stability that carry over directly to stairs, running, and sport.

Lateral lunges
Trains side-to-side control, hip strength, and prepares for deceleration work — key for cutting and change of direction.

Glute bridges
Focuses on glutes and hamstrings, supporting hip extension and pelvic control.

Calf raises
Builds calf and ankle strength, helping with balance, walking, and running efficiency.

If you’re new to exercise, have pre-existing medical conditions, or are unsure where to start, check in with a healthcare or rehab professional before ramping up intensity.

The Bottom Line

Strong muscles support more than performance. Building and maintaining leg strength is critical for movement, mobility, and independence — and may also help support cognitive function and healthier brain aging over time.

The takeaway:
Train your legs now.
Load gradually.
Keep them strong across the lifespan.

Because you’re not just training for today’s workout. You may also be investing in how your brain works years from now.

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References

1. Jin, W., Liu, S., Huang, L., Xiong, X., Chen, H., & Liang, Z. (2025). Association between muscle strength and dementia in middle-aged and older adults: A nationwide longitudinal study. Journal of psychiatric research, 191, 189–197. https://doi.org/10.1016/j.jpsychires.2025.09.043

2. Brisendine, M. H., & Drake, J. C. (2025). Integrative physiology of skeletal muscle for maintaining cognitive health. The Journal of physiology, 10.1113/JP286748. Advance online publication. https://doi.org/10.1113/JP286748

3. Vaughan, B. A., Muniz-Terrera, G., Simon, J. E., Grooms, D. R., Clark, B. C., Davatzikos, C., Erus, G., Tian, Q., Ferrucci, L., Resnick, S. M., & Simonsick, E. M. (2025). The predictive power of brain-predicted age and leg strength on mobility decline in aging: findings from the Baltimore Longitudinal Study of Aging. The journals of gerontology. Series A, Biological sciences and medical sciences, 80(12), glaf222. https://doi.org/10.1093/gerona/glaf222

4. Song, Y., Jia, S., Wang, X., Wang, A., Li, S., Ding, F., Ma, T., & Wu, X. (2025). Muscle strength, EEG biomarkers, and working memory as interacting predictors of cognitive function in cognitively impaired older adults. Frontiers in aging neuroscience, 17, 1641209. https://doi.org/10.3389/fnagi.2025.1641209

5. Chen, C., & Nakagawa, S. (2023). Physical activity for cognitive health promotion: An overview of the underlying neurobiological mechanisms. Ageing research reviews, 86, 101868. https://doi.org/10.1016/j.arr.2023.101868

6. Tari, A. R., Walker, T. L., Huuha, A. M., Sando, S. B., & Wisloff, U. (2025). Neuroprotective mechanisms of exercise and the importance of fitness for healthy brain ageing. Lancet (London, England), 405(10484), 1093–1118. https://doi.org/10.1016/S0140-6736(25)00184-9

7. Steves, C. J., Mehta, M. M., Jackson, S. H., & Spector, T. D. (2016). Kicking Back Cognitive Ageing: Leg Power Predicts Cognitive Ageing after Ten Years in Older Female Twins. Gerontology, 62(2), 138–149. https://doi.org/10.1159/000441029

Are You Spring Ready?

Spring sports ramp up fast — practices lengthen, intensity spikes, and competition schedules fill up. Whether you’re a high school athlete or a weekend warrior, your performance and durability are built long before the first game. In this blog, you’ll find tips for maximizing spring sport performance and the checklist every high school athlete and weekend warrior needs, covering strength, mobility, progressive speed exposure, and recovery strategies to set the stage for a healthy, successful season.

When the weather shifts, so does activity. Spring sports ramp up fast — practices get longer, intensity spikes, and competition schedules stack up quickly.

But here’s the truth:

Injuries don’t spike because spring arrived. They spike because preparation didn’t happen in winter.

Across both high school athletes and adult recreational athletes, research consistently shows the same pattern: early-season overload, overuse accumulation, and inadequate strength or tissue preparation drive injury rates up.

Let’s break it down.

High School Athletes: The Early-Season Risk Is Real

Track & Field

• Overall injury rate: 0.84 injuries per 1,000 athlete exposures

• Girls experience 37% higher injury rates than boys

• Nearly 70% of track athletes sustain at least one injury in season-long studies

• Training in spikes + ≥6 hours every two weeks increases injury risk 8-fold

Lower extremity injuries dominate — especially hamstrings, calves, knees, and ankles.

Translation: Winter should focus on posterior chain strength, tendon loading, and progressive speed exposure — not just mileage.

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Baseball & Softball

• Shoulder and elbow injuries are most common

• Pitchers account for nearly 40% of shoulder injuries and 57% of elbow injuries

• Injury rates are highest in the first month of the season

Translation: Arm care, scapular strength, and gradual throwing volume must begin in winter — not at the first bullpen.

---

Tennis (Youth)

• Lower extremity injuries (knee & ankle) are most common

• 43% of injuries cause >4 weeks missed

• Training ≥3x/week or >4.5 hours/week doubles injury risk

Repetitive rotation + quick direction changes stress both lower body and shoulder complex.

Translation: Winter needs rotational strength, landing mechanics, and ankle stability work.

---

Weekend Warriors: The Spring Surge Problem

Adults face the same issue — compressed preparation and intensity spikes.

Recreational Runners (5K/10K Season)

• Most common: shin splints, Achilles tendinopathy, patellofemoral pain

• Median recovery time: 56 days

• Poor sleep, high mileage (>20km/week), and higher bodyweight increase risk

Protective factor?
Foot-core strength training reduces injury risk by 60%.

Translation: Winter is the time to build tissue tolerance gradually — not jump into race mileage.

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Adult Recreational Soccer

• 60% sustain at least one time-loss injury per season

• Knee (29.9%) and ankle (12.4%) most injured

• 30% of injuries last >1 month

• 14% are reinjuries

Contact accounts for over half of injuries — but many ligament injuries stem from poor neuromuscular control.

Translation: Winter should include deceleration drills, landing mechanics, and strength for joint stability.

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Pickleball (Especially 50+)

• 34% of recreational players report injury annually

• Knee, elbow, shoulder most common

• Achilles ruptures often require surgery

• Fracture risk increases after age 60

Interestingly, experience and consistent play reduce injury risk — so if you’re gonna play, maybe don’t make it your annual “dust off the cleats and hope for the best” appearance.

Join a regular group. Your muscles (and your pride) will thank you.

Translation: Winter should emphasize balance, calf strength, and reactive footwork.

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Why Winter Matters

The first month of spring season consistently shows the highest injury rates across multiple sports.

That tells us one thing:

The body wasn’t prepared for the demand.

Winter training should:

• Build tendon resilience

• Increase force production capacity

• Improve neuromuscular control

• Gradually expose athletes to speed and volume

Preparation reduces the “too much, too soon” spike.

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Winter-to-Spring Readiness Checklist

High School Athlete Checklist

Strength

☐ 2–3x/week lower body strength (posterior chain focus)

☐ Single-leg strength work

☐ Core anti-rotation & rotational strength

☐ Arm care program (for overhead athletes)

Mobility

☐ Ankle dorsiflexion mobility

☐ Hip internal rotation

☐ Thoracic rotation

Speed & Conditioning

☐ Gradual sprint exposure (no sudden spikes)

☐ Acceleration + deceleration drills

☐ Progressive volume build

Recovery

☐ 8+ hours sleep

☐ At least 1 rest day/week

☐ Monitor soreness and early pain signals

Weekend Warrior Checklist

Strength

☐ 2x/week resistance training

☐ Calf and Achilles loading

☐ Knee control exercises

☐ Foot-core training (especially runners)

Volume Management

☐ Increase mileage or play time ≤10% per week

☐ Avoid jumping from “zero to league play”

Balance & Stability

☐ Single-leg balance drills

☐ Lateral movement prep

☐ Deceleration mechanics

Lifestyle Factors

☐ Prioritize sleep

☐ Manage stress

☐ Address lingering injuries before season start

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Final Takeaway

Spring performance is built in winter.

Whether you're a high school sprinter, a pitcher, a tennis athlete — or a 42-year-old signing up for a 10K — the research says the same thing:

Preparation determines durability.

Train smart now.
Load gradually.
Build tissue capacity before demand spikes.

Because the goal isn’t just starting the season.

It’s finishing it healthy. 

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References:

1. Epidemiology of Injuries in United States High School Track and Field: 2008-2009 Through 2013-2014. Pierpoint LA, Williams CM, Fields SK, Comstock RD. The American Journal of Sports Medicine. 2016;44(6):1463-8. doi:10.1177/0363546516629950.

2. Prevalence, Incidence and Characteristics of Musculoskeletal Injuries in Athletics (Track and Field): A Systematic Review and Meta-Analysis. Edouard P, Tsukahara Y, Mann RH, et al. British Journal of Sports Medicine. 2026;:bjsports-2025-110541. doi:10.1136/bjsports-2025-110541.

3. Epidemiology of Overuse Injuries in US Secondary School Athletics From 2014-2015 to 2018-2019 Using the National Athletic Treatment, Injury and Outcomes Network Surveillance Program. Post EG, Simon JE, Robison H, Morris SN, Bell DR. Journal of Athletic Training. 2022;57(5):510-516. doi:10.4085/1062-6050-600-20.

4. Training in Spikes and Number of Training Hours Correlate to Injury Incidence in Youth Athletics (Track and Field): A Prospective 52-Week Study. Ek A, Kowalski J, Jacobsson J. Journal of Science and Medicine in Sport. 2022;25(2):122-128. doi:10.1016/j.jsams.2021.09.006. 

5. Shoulder Injuries in US High School Baseball and Softball Athletes, 2005-2008. Krajnik S, Fogarty KJ, Yard EE, Comstock RD. Pediatrics. 2010;125(3):497-501. doi:10.1542/peds.2009-0961. 

6. Epidemiological Features of High School Baseball Injuries in the United States, 2005-2007. Collins CL, Comstock RD. Pediatrics. 2008;121(6):1181-7. doi:10.1542/peds.2007-2572. 

7. Epidemiology of Shoulder and Elbow Injuries Among United States High School Baseball Players: School Years 2005-2006 Through 2014-2015. Saper MG, Pierpoint LA, Liu W, et al. The American Journal of Sports Medicine. 2018;46(1):37-43. doi:10.1177/0363546517734172. 

8. Incidence of Injuries in High School Softball and Baseball Players. Shanley E, Rauh MJ, Michener LA, Ellenbecker TS. Journal of Athletic Training. 2011 Nov-Dec;46(6):648-54. doi:10.4085/1062-6050-46.6.648.

9. Epidemiological Analysis of Pediatric Baseball and Softball Concussions in United States Emergency Departments. Abed V, Hawk GS, Conley C, Akarakian R, Stone AV. The American Journal of Emergency Medicine. 2023;69:143-146. doi:10.1016/j.ajem.2023.04.025. 

10. Injury Profile in Junior Tennis Players: A Prospective Two Year Study. Hjelm N, Werner S, Renstrom P. Knee Surgery, Sports Traumatology, Arthroscopy : Official Journal of the ESSKA. 2010;18(6):845-50. doi:10.1007/s00167-010-1094-4. 

11. Racket Sports-Related Injuries in Youth Athletes: A Narrative Review. Shrestha M, Usmani A, Karlov S, Harris A, Patel DR. International Journal of Environmental Research and Public Health. 2026;23(1):135. doi:10.3390/ijerph23010135. 

12. Epidemiology of Musculoskeletal Injuries in Tennis Players: Risk Factors. Minghelli B, Cadete J. The Journal of Sports Medicine and Physical Fitness. 2019;59(12):2045-2052. doi:10.23736/S0022-4707.19.09842-6. 

13. Diagnoses and Time to Recovery Among Injured Recreational Runners in the RUN CLEVER Trial. Mulvad B, Nielsen RO, Lind M, Ramskov D. PloS One. 2018;13(10):e0204742. doi:10.1371/journal.pone.0204742. 

14. Factors Associated With Lower Limb Injuries in Recreational Runners: A Cross-Sectional Survey Including Mental Aspects and Sleep Quality. Mousavi SH, Hijmans JM, Minoonejad H, Rajabi R, Zwerver J. Journal of Sports Science & Medicine. 2021;20(2):204-215. doi:10.52082/jssm.2021.204.

15. Predictive Effect of Well-Known Risk Factors and Foot-Core Training in Lower Limb Running-Related Injuries in Recreational Runners: A Secondary Analysis of a Randomized Controlled Trial. Suda EY, Watari R, Matias AB, Taddei UT, Sacco ICN. The American Journal of Sports Medicine. 2022;50(1):248-254. doi:10.1177/03635465211056329. 

16. Running With Injury: A Study of UK Novice and Recreational Runners and Factors Associated With Running Related Injury. Linton L, Valentin S. Journal of Science and Medicine in Sport. 2018;21(12):1221-1225. doi:10.1016/j.jsams.2018.05.021.

17. Injuries Among Spanish Male Amateur Soccer Players: A Retrospective Population Study. Herrero H, Salinero JJ, Del Coso J. The American Journal of Sports Medicine. 2014;42(1):78-85. doi:10.1177/0363546513507767. 

18. Soccer Injuries and Recovery in Dutch Male Amateur Soccer Players: Results of a Prospective Cohort Study. van Beijsterveldt AM, Steffen K, Stubbe JH, et al. Clinical Journal of Sport Medicine : Official Journal of the Canadian Academy of Sport Medicine. 2014;24(4):337-42. doi:10.1097/JSM.0000000000000028. 

19. Injuries in Formal and Informal Non-Professional Soccer - An Overview of Injury Context, Causes, and Characteristics. Gebert A, Gerber M, Pühse U, et al. European Journal of Sport Science. 2018;18(8):1168-1176. doi:10.1080/17461391.2018.1475507. 

20. The Perils of Pickleball: A Two Decade Analysis of Upper and Lower Extremity Injuries From America's Fastest Growing Sport. Boroumand S, Park N, Katsnelson B, et al. Journal of Sports Sciences. 2025;43(14):1378-1385. doi:10.1080/02640414.2025.2496089. 

21. Pickleball-Related Injuries Treated in Emergency Departments. Forrester MB. The Journal of Emergency Medicine. 2020;58(2):275-279. doi:10.1016/j.jemermed.2019.09.016. 

22. Injury Risk and Epidemiology of Pickleball Players in South Korea: A Cross-Sectional Study. Jeong B, Lee KJ, Nam SH, et al. Frontiers in Public Health. 2025;13:1617291. doi:10.3389/fpubh.2025.1617291. 

23. Pickleball: A Standard Review of Injury Prevalence and Prevention in a Rapidly Growing Sport. Azar FM, Lamplot JD, Bernholt DL, Spence DD. The Journal of the American Academy of Orthopaedic Surgeons. 2024;32(22):e1130-e1141. doi:10.5435/JAAOS-D-24-00151. 

24. As Pickleball Continues to Gain Players, Injuries Are Increasing. Rodgers L. JAMA. 2025;:2840448. doi:10.1001/jama.2025.18833. 

25. Emerging Patterns of Foot and Ankle Injuries in Pickleball Players: A Short Report. Kingston K, Parker EB, Higgins A, Smith JT. Foot & Ankle International. 2024;45(11):1266-1269. doi:10.1177/10711007241271215. 

26. Common Sports Injuries in Young Tennis Players. Bylak J, Hutchinson MR. Sports Medicine (Auckland, N.Z.). 1998;26(2):119-32. doi:10.2165/00007256-199826020-00005.

Snap, Crackle, Pop

Ever hear a pop when you squat, a crack when you roll your neck, or a grind when you climb stairs? That’s crepitus — the medical term for the noises or sensations that sometimes come from your joints.

Crepitus is common, and in most cases, it’s nothing to worry about. But sometimes, it can signal that your joint mechanics aren’t working as smoothly as they should. Let’s break down why it happens, when it’s normal, and when it may be worth a closer look.

What Exactly Is Crepitus?

Crepitus refers to the popping, cracking, grating, or crunching sounds (or sensations) that occur during joint movement. It can show up in many areas of the body, including the knees, shoulders, hips, spine, and even the jaw.

It’s not a condition by itself, but more of a sign that something is happening in or around the joint. A lot of times, that “something” is completely benign. Other times, it’s a clue that the joint is under stress (Drum et al., 2023).

Why Do Joints Make Noise?

There are several reasons joints produce crepitus, most of which are harmless:

• Gas bubble formation (cavitation): Joints are lubricated by synovial fluid. When pressure inside the joint changes quickly, gas can form or collapse in the fluid, creating a distinct popping sound (Kawchuk et al., 2015; Fryer et al., 2017).

• Tendons or ligaments snapping over bone: Soft tissues sometimes shift slightly during movement and then snap back into place, creating a click.

• Surface changes in cartilage: If the smooth joint surfaces become uneven (such as in arthritis), movement can cause grinding or crackling noises.

• Internal tissue catching: Soft tissue folds inside the joint, such as plica or meniscal edges, can occasionally cause popping or clicking (Drum et al., 2023).
  
  

How Common Is Crepitus?

You’re not alone if your joints make noise — crepitus is widespread, even in healthy people.

• About 41% of knees in the general population show crepitus.

• Even among people with no knee pain, roughly one-third still experience it.

• In individuals with osteoarthritis, the numbers are higher — up to 81% report crepitus (Couch et al., 2025).

The takeaway? Joint noise is very common, and by itself, it doesn’t necessarily mean damage.

When Crepitus Is Harmless

Most of the time, crepitus is simply a mechanical quirk of how your joints move. It’s usually not a concern if:

• The noise occurs without pain.

• There’s no swelling, stiffness, or loss of motion.

• It hasn’t been getting worse over time.

In these cases, there’s no reason to avoid movement — in fact, staying active can keep your joints healthier.

When Crepitus Might Signal a Problem

Crepitus deserves more attention when it’s paired with other symptoms. You may want to consult a physical therapist or physician if you notice:

• Pain with movement or weight-bearing

• Swelling, warmth, or stiffness in the joint

• Locking, catching, or instability

• Persistent or worsening grinding

• Loss of function or activity limitations

In some cases, more intense crepitus has been linked with weaker surrounding muscles (like the quadriceps in the knee). This muscle imbalance can place more stress on the joint, making symptoms worse (Jakovacz et al., 2024).

Importantly, while crepitus is more common in people with osteoarthritis, studies show that crepitus alone does not reliably predict disease progression or need for joint replacement (Pazzinatto et al., 2018).

What You Can Do About Crepitus

If your crepitus is painless:

• Keep moving. Regular activity nourishes cartilage and prevents stiffness.

• Strengthen muscles. For example, strong quadriceps and hamstrings help reduce stress on the knee.

• Stretch and mobilize. Increased flexibility can improve tendon and ligament function.
  
  
  

Simple Tools to Keep Your Joints Moving Smoothly

Crepitus can often be eased with tools that promote muscle relaxation and joint mobility. The Hypervolt massage gun with its heated attachment helps improve circulation, reduce muscle tension, and warm up tissues around the joints. Pairing it with gentle movements using an exercise ball encourages controlled mobility and improved joint function.

If your crepitus is painful or comes with swelling or dysfunction:

• Check in with a physical therapist. They can identify whether the crepitus is harmless or potentially linked to a condition like arthritis, tendon overload, or a fibrocartilage injury (meniscus, labrum).

• Follow a guided plan. Targeted exercises, joint protection strategies, and activity modifications can help reduce pain and restore confidence in movement.

Bottom Line

Joint noise by itself, even if it sounds dramatic, is usually nothing to worry about. But if crepitus shows up alongside pain, swelling, or loss of function, it’s your body’s way of telling you to pay closer attention.

The good news? Most causes of crepitus respond well to exercise, physical therapy, and healthy movement habits. So the next time your joints crack, remember: noise without pain is normal; noise with pain deserves attention.

References

• Couch, T. A., Hall, M., Hussain, S. M., Teichtahl, A. J., Wluka, A. E., & Wang, Y. (2025). Knee crepitus: A systematic review of prevalence, incidence, and associations with knee osteoarthritis. Osteoarthritis and Cartilage Open, 7(1), 100471.

• Drum, E. E., Jauregui, J. J., Probasco, S. K., et al. (2023). Knee crepitus: Current evidence and clinical relevance. Musculoskeletal Care, 21(3), 442–449.

• Fryer, G., Pearce, A. J., & Herbert, J. J. (2017). Cavitation onset in the metacarpophalangeal joint: A physiological explanation of joint cracking. PLoS ONE, 12(4), e0174190.

• Jakovacz, N., Mészáros, Z., & Farkas, J. (2024). Relationship between knee crepitus intensity and quadriceps muscle thickness. Manual Therapy, 66, 107102.

• Kawchuk, G. N., Fryer, J., Jaremko, J. L., Zeng, H., Rowe, L., & Thompson, R. (2015). Real-time visualization of joint cavitation. PLoS ONE, 10(4), e0119470.

• Pazzinatto, M. F., de Oliveira Silva, D., Azevedo, F. M., & Barton, C. J. (2018). Association between crepitus and progression of knee osteoarthritis: A longitudinal cohort study. Arthritis Care & Research, 70(3), 420–427.

Why the Right Support Matters

If you've ever pulled a muscle, twisted your knee, or found yourself dealing with persistent aches and pains, you might have wondered: Should I go see a massage therapist or book an appointment with a physical therapist?

It’s a common question—and a good one. While both massage and physical therapy (PT) are both key for treating pain and promoting recovery, they also serve different purposes and are often most effective when used together.

Let’s explore how each one works, when to choose one over the other, and why the smartest choice might be both.

Massage Therapy: A First Line of Care

Massage therapy is often a great place to start after an injury or when you're experiencing pain, tension, or swelling. Think of it as the “first responder” for soft tissue issues—like muscle strains, tension headaches, or post-exercise soreness.

Massage therapy works by:

• Reducing pain and muscle guarding through stimulation of pressure receptors and pain-modulating pathways (Moraska et al., 2021).

• Decreasing swelling by improving lymphatic flow and local circulation.

• Increasing blood flow to promote tissue healing and deliver nutrients to damaged areas.

• Improving tissue quality, including flexibility and pliability of muscles and fascia.
  

This makes massage especially useful in the acute phase of healing—when inflammation is high, movement is painful, and the goal is simply to help the body settle and start repairing itself.

In many ways, massage prepares the body for what comes next: more active rehabilitation.

Massage also activates the parasympathetic nervous system, promoting relaxation and reducing the body's stress response—an often-overlooked but critical part of healing (Field, 2014). This calming effect can make it easier for patients to move, breathe, and rest, all of which are essential for recovery.

Physical Therapy: Building Long-Term Resilience

While massage is excellent for reducing symptoms, physical therapy focuses on correcting the underlying root causes of pain and dysfunction. Working with a PT becomes especially important when you’re ready to restore movement, rebuild strength, and prevent the problem from coming back.

Physical therapists are trained to:

• Perform functional and sport-specific movement analysis to identify dysfunctions or imbalances.

• Restore mobility and function through manual therapy to optimize biomechanics and movement.

• Strengthen weak or inhibited muscles that may be contributing to pain or poor alignment and limited function.

• Improve proprioception, which is your body's awareness of where it is in space—a crucial skill after injury or surgery (Han et al., 2016).

• Develop and implement customized exercise plans to retrain the body and improve athletic capacity.
  

While physical therapists utilize manual therapy techniques and modalities to treat swelling and pain, their primary goal is long-term functional recovery and return to sport. That means helping you move better—not just feel better.

PT helps you build the strength and coordination to stay healthy, not just get healthy.

For example, if you’ve sprained your ankle, massage may help with the initial swelling and stiffness. But PT will help you restore your balance, retrain your gait, and strengthen your ankle to reduce the chance of reinjury.

Better Together: How Massage and PT Complement Each Other

Rather than choosing between massage and physical therapy, the real secret is knowing how they work in tandem.

Massage can:

• Relax tight muscles before a PT session, allowing for better movement.

• Help reduce soreness and inflammation after exercise or manual therapy.

• Improve tissue extensibility, making stretching and strengthening more effective.
  

Physical therapy can:

• Address the biomechanical issues causing pain or tightness in the first place.

• Reinforce the gains made through massage with strengthening and motor control exercises.

• Guide patients through functional movements to improve long-term outcomes.
  

Research supports this complementary approach. A 2016 study found that combining manual therapy (including massage techniques) with exercise led to better outcomes for low back pain compared to either intervention alone (Wegner et al., 2013). In other words, you get more value from both when they’re used together.

Final Thoughts: Two Tools, One Goal—Your Recovery

When you're in pain or recovering from an injury, it’s easy to look for one solution. But healing is rarely a straight line—and no single approach has all the answers.

Massage therapy and physical therapy each bring unique strengths to the table. Massage helps soothe the body, reduce pain, and restore tissue health. Physical therapy helps correct movement, build strength, and prevent future problems.

Used together, they offer a more complete path to healing. So if you’re wondering whether to book that massage or start PT, the answer might be: both—at the right time, in the right order, and with the right goals.

References

• Field, T. (2014). Massage therapy research review. Complementary Therapies in Clinical Practice, 20(4), 224–229.

• Han, J., Waddington, G., Adams, R., Anson, J., & Liu, Y. (2016). Assessing proprioception: A critical review of methods. Journal of Sport and Health Science, 5(1), 80–90.

• Moraska, A. F., Chandler, C., Edmiston-Schaetzel, A., Franklin, G., Calenda, E. L., & Rice, K. (2021). Massage therapy for pain and function in patients with chronic low back pain: A systematic review and meta-analysis. Pain Medicine, 22(4), 842–854.

• Wegner, A., Widyahening, I. S., van Tulder, M. W., Blomberg, S., de Vet, H. C. W., & Brønfort, G. (2013). Traction for low-back pain with or without sciatica. Cochrane Database of Systematic Reviews, (8).

Maintaining Cardiovascular Fitness with an Overuse Injury

Clinicians often recommend limiting time and intensity of workouts to allow for greater recovery time, decreased tissue stress and improved healing. By overloading a injured area either too soon, or too often, the athlete can see regressions in function, pain and dysfunctional mechanics. Yet, for the avid athlete, being told to decrease workout volume can feel disorienting. Aqua jogging can be a safe alternative for many athletes in this predicament, including those recovering from:

• Stress-related bone injuries: stress response, stress reaction or stress fracture

• Tendinopathies of the leg, including gluteal, hamstring and achilles tendinopathy

• Surgical repair of a major injury, including FAI, labral, ACL or a meniscus repair

Aqua jogging can also be a great accessory workout for those with a very high training volume to allow for a effective cardio workout at a decreased level of impact. For many, access to a pool is more convenient than an anti-gravity treadmill! By adding a reduced load workout to your routine, you can decrease your risk of injury.

In all cases, talk to your medical team to ensure you are ready to begin an aquatic rehab program.

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Pro tips for a successful aqua jogging workout:

1) Choose the right equipment

Wear a minimally buoyant belt to allow for moderate challenge throughout your workout. Avoid ones that are bulky, ill-fitting or feel like an inner tube. Click the images below to view our recommendations.

2) It’s aqua jogging, not swimming

Stay upright, keeping your hips under your shoulders. Resist the urge to go horizontal as with swimming; this will be less effective when wearing a floatation belt.

3) You’re in water, not on land

Don't focus on moving forward, as this will happen naturally. Instead, pay attention to the level of effort you’re exerting, regardless of how quickly you traverse the pool. 

4) Adjust your training volume to match

When cross-training specifically for distance running, a general rule of thumb is that you need to do 50% more in the pool to get the same cardio benefit as running on land. In other words, 45 minutes in the pool = 30 minutes of running.

To increase the challenge:

Intervals, intervals, intervals!

Just like with non-water workouts, varying the speed and intensity of your effort in waves can provide increased benefits. Using a timer or landmarks within the pool, challenge yourself to pick up the pace for a measurable interval. Based on your overall health, choose an appropriate recovery window. This can be time-based, for example resting the same, twice as much or half as much time it took you complete the challenging interval, or it can be biometrical, waiting for your heart rate to return to its pre-interval baseline.

Get a resistance band.

Select a band like this one and attach yourself to the wall, you can do "sprints" by creating more resistance than the water naturally provides.

Resistance bands can also be used if the pool is not deep enough throughout to do laps, you can do a stationary workout with this band by anchoring yourself to the wall or pool deck.

Remove the belt!

We recommend waiting until you feel confident with aqua jogging form is before taking this step. Taking it off too soon, even if you are a proficient swimming, will impact the overall quality of your workout.