For many tech professionals and avid gamers in San Francisco, wrist pain is an all-too-common issue. Whether you're coding in a downtown co-working space, gaming in a Sunset apartment, or scrolling through emails in the Mission, repetitive hand use can take a toll. But the good news is this: targeted exercise is one of the most effective ways to support your wrist and tendon health.

Why Exercise Can Help With Wrist Pain: A San Francisco Guide to Hand & Tendon Health

Living in San Francisco means balancing innovation and well-being—whether that’s hours behind a screen at a SoMa startup, winding bike rides through Golden Gate Park, or weekend gaming sessions in North Beach. But if you’re noticing nagging hand or wrist pain from typing, swiping, or coding, you’re not alone. Repetitive strain injuries, especially those involving tendons, are incredibly common in digital professionals.

 

Let’s dive into the science behind why exercise is essential for recovery—and what you can start doing today to feel better.

First, What’s Going On in Your Wrist?

Tendons are the rope-like connectors between muscles and bones, helping transfer force during motion. Overuse—like nonstop typing, clicking, or gaming—can stress these tendons, especially around the wrist and forearm. This isn’t just inflammation; in many cases, it’s a degenerative condition known as tendinopathy.

Rest alone doesn’t typically resolve tendinopathy. Instead, progressive, intentional movement is the key.

 

You may have tried exercises in the past with little success. But that doesn’t mean the concept was flawed. Results require the right type of movement, a solid understanding of why you’re doing it, and consistent, long-term effort. It’s not about pushing through pain—it’s about guiding your body through recovery.

Why Exercise Works: The Science of Tendon Recovery

If you’ve been told to “rest” your wrist pain away, it might sound counterintuitive to start exercising. But research shows that targeted loading—in the form of specific, structured exercise—is the most effective treatment for tendon pain.

When done right, exercise can:

• Stimulate collagen production (the building blocks of tendon tissue)
  
  
• Improve tendon stiffness and resilience
  
  
• Reduce pain over time
  
  
• Re-train your nervous system to feel safe with movement
  
  

Think of it like remodeling a Victorian home in the Haight: proper maintenance and gradual upgrades lead to better function and durability.

 

Understanding Tendon Anatomy and Remodeling

Tendons are made up of bundled collagen fibers. When healthy, these fibers are tightly packed and aligned. With overuse, the structure breaks down—fluid fills gaps, fibers fray, and the tendon becomes weaker.

 

Exercise, however, prompts healing. It improves how tendons glide, enhances their ability to absorb stress, and increases production of Type I collagen, the strongest form.

Imagine reinforcing a suspension bridge in the Bay Area:

• The casing around the cable (your tendon sheath) improves fluid regulation.
  
  
• Extra steel wires (collagen cross-links) are added for strength.
  
  
• Old, worn ropes (Type III collagen) are replaced with high-tensile materials (Type I collagen).
  
  

The result? A tendon that can handle more stress with less pain.

Within each of these bundles are the little tendon cells, which are sensitive to the pulling of the fibers. In the images the tendon cells (tenocytes) are the little round dots.

The top images show what a healthy tendon looks like. Fibers are nicely aligned, not broken up while the bottom images show what the tendons look like when there is too much repeated stress on it. Water fills up the spaces, the fibers are weaker and tend to become more disorganized. Think of it again like a rope that has strong fibers intertwined nicely and well packed. When the rope is pulled too much, some can fray, space opens up and it can’t handle the stress as well. This is what happens to our tendons and this is what has been shown based on the research looking into tendon pathology.

So What Does Exercise Do For Us?

A common question that people will ask is “Isn’t exercise also considered “stress” or pulling?” The answer…The RIGHT amount of exercise allows the rope to become stronger and there are real changes in the tendon that occur as a result of this. Additionally, the muscle itself can handle more stress so it can lead to the EVEN pulling on the tendon. Rather than uneven if some fibers are fatigued.

 

As healthy load is provided to the tendons, minimizing situations in which too much stress is applied, here is what has been shown to happen.

The casing and surrounding of the tendon better manages the fluid within to help better handle stress. But also glide alongside each other more effectively. There are crosslinks that develop that also increase the amount of stress that can be tolerated. But even more unique is that the fibers themselves become stronger. This is typically mediated by the type of collagen within the fiber.

More of the “stronger” collagen types make up the fibers (Type I) rather than the weaker ones (III & IV). So again, thinking of the rope..

1. A fluid encasing is wrapped around the rope to keep the fibers in optimal shape and allow them to slide well against each other
2. Additional steel fibers are added between the fibers to reinforce the rope
3. The rope has steel fibers instead of manila or cotton (type I vs. type III/IV)

That makes for an insanely strong rope or tendon that can handle more stress.

But guess what… it takes time!

To learn more about tendons and why exercise load is important for recovery then watch the video below:

But Don’t Expect Overnight Results

Just like trying to find parking in the Mission during rush hour—tendon recovery takes time. Nervous system improvements happen within 2–3 weeks, muscles adapt around 6 weeks, and tendons take a minimum of 8 weeks for structural changes to fully develop.

 

You’ll likely notice some relief early on, but lasting change comes with persistence. Your baseline fitness, pain level, and consistency all affect the recovery timeline.

Pain Isn’t Just Physical—It’s Neurological Too

Modern pain science shows us that chronic pain is about more than just tissue damage—it’s also about how our brain and nervous system interpret threats.

In tech-heavy cities like San Francisco, where so many rely on their hands for coding, design, writing, and gaming, nervous system sensitivity can become a huge barrier. Movements that were once harmless can now feel painful.

 

The good news? Exercise is like a retraining program for your brain, teaching it that movement is safe again.

 

To learn more about Pain Science then take a look at our article here.

Final Thoughts and Where to Start

Wrist pain isn’t just about wear and tear—it’s about adaptation. With the right exercises and knowledge, you can transform pain from a limiting factor into a growth opportunity.

Whether you’re debugging code in Dogpatch, gaming in the Marina, or managing social media from a rooftop café in the Castro—your wrists deserve evidence-based support.

 

If you’re in the San Francisco area and dealing with ongoing wrist or hand pain, we offer routines, exercises, playlists and free guides or consult with a local specialist. We understand that it can be hard to fight the traffic in the city and so we offer telemedicine for this reason. Telemedicine can be a great option as the success rate remains just as strong if not better when compared to in-person sessions. 

Feel free to also check out our troubleshooter program that works to understand your individual pain pattern and provide you with specific exercises with the exact reps, sets, and weight determined by specific testing. You may also want to join our community discord where we’ll happily answer any further questions!

References

1. Alfredson, H., Pietilä, T., Jonsson, P., & Lorentzon, R. (1998). Heavy-load eccentric calf muscle training for the treatment of chronic Achilles tendinosis. The American Journal of Sports Medicine, 26(3), 360-366. https://doi.org/10.1177/03635465980260030301
2. Arampatzis, A., Karamanidis, K., & Albracht, K. (2007). Adaptational responses of the human Achilles tendon by modulation of the applied cyclic strain magnitude. The Journal of Experimental Biology, 210(15), 2743-2753. https://doi.org/10.1242/jeb.003814
3. Bohm, S., Mersmann, F., & Arampatzis, A. (2015). Human tendon adaptation in response to mechanical loading: A systematic review and meta-analysis of exercise intervention studies on healthy adults. Sports Medicine, 45(12), 1575-1599. https://doi.org/10.1007/s40279-015-0351-9
4. Couppe, C., Svensson, R. B., Silbernagel, K. G., Langberg, H., & Magnusson, S. P. (2016). Eccentric or concentric exercises for the treatment of tendinopathies? Journal of Orthopaedic & Sports Physical Therapy, 46(9), 687-696. https://doi.org/10.2519/jospt.2016.6409
5. Heinemeier, K. M., Skovgaard, D., Bayer, M. L., Qvortrup, K., Kjaer, A., & Kjaer, M. (2013). Uphill running improves rat Achilles tendon tissue mechanical properties and alters gene expression without inducing pathological changes. Journal of Applied Physiology, 115(6), 769-777. https://doi.org/10.1152/japplphysiol.00483.2013
6. Kubo, K., Kanehisa, H., & Fukunaga, T. (2001). Effects of different duration isometric contractions on tendon properties in humans. Journal of Applied Physiology, 91(6), 2775-2781. https://doi.org/10.1152/jappl.2001.91.6.2775
7. Kubo, K., Kanehisa, H., & Fukunaga, T. (2002). Effects of resistance and stretching training programs on the viscoelastic properties of human tendon structures in vivo. Journal of Physiology, 538(1), 219-226. https://doi.org/10.1113/jphysiol.2001.012703
8. Magnusson, S. P., Narici, M. V., Maganaris, C. N., & Kjaer, M. (2008). Human tendon behaviour and adaptation, in vivo. The Journal of Physiology, 586(1), 71-81. https://doi.org/10.1113/jphysiol.2007.139105
9. Malliaras, P., Cook, J. L., & Kent, P. (2007). Reduced ankle dorsiflexion range may increase the risk of patellar tendon injury among volleyball players. Journal of Science and Medicine in Sport, 10(6), 335-339. https://doi.org/10.1016/j.jsams.2006.08.020
10. Mersmann, F., Bohm, S., & Arampatzis, A. (2017). Imbalances in the development of muscle and tendon as risk factor for tendinopathies in youth athletes: A review of current evidence and concepts of prevention. Frontiers in Physiology, 8, 987. https://doi.org/10.3389/fphys.2017.00987
11. Seynnes, O. R., Bojsen-Moller, J., Albracht, K., Arndt, A., Cronin, N. J., Finni, T., & Magnusson, S. P. (2009). Ultrasound-based testing of tendon mechanical properties: A critical evaluation. Journal of Applied Physiology, 106(2), 554-558. https://doi.org/10.1152/japplphysiol.91040.2008
12. Wiesinger, H. P., Kösters, A., Müller, E., & Seynnes, O. R. (2015). Effects of increased loading on in vivo tendon properties: A systematic review. Medicine and Science in Sports and Exercise, 47(9), 1885-1895. https://doi.org/10.1249/MSS.0000000000000597
13. Wren, T. A., Beaupré, G. S., & Carter, D. R. (2000). A model for loading-dependent growth, development, and adaptation of tendons and ligaments. Journal of Biomechanics, 33(7), 803-809. https://doi.org/10.1016/S0021-9290(00)00015-2
14. Zhang, Y., Nerlich, M., & Zwingenberger, S. (2019). Tendon aging: Molecular, cellular and biomechanical changes from a tissue engineering perspective. Journal of Orthopaedic Research, 37(7), 1456-1464. https://doi.org/10.1002/jor.24286

Written By: Brett Becker, OTR/L, ACE-CPT & CMES