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Running Shoes: A Century of Myths and the Real Science

Do stability shoes, arch support, or barefoot running hold up to evidence? How to choose training and race shoes—and build genuinely stronger feet.

Running Shoes: A Century of Myths and the Real Science

In the 1920s a running shoe was a sliver of leather and a row of hand-forged spikes. The cushioned, elevated-heel trainer most of us picture today is barely fifty years old, arriving with the 1970s jogging boom. In the century between, the industry has cycled through air pockets, gel, motion control, barefoot minimalism, and now carbon plates—each sold as the answer to injury or speed.

There is one uncomfortable thread running through all of it.

Despite decades of cushioning, support systems, and "corrective" technology, running-injury rates have not measurably fallen. Much of what we believe about shoes is marketing that outran the science.

This article traces how the shoe got here, separates the claims that survive scrutiny from the ones that do not, and then turns to what the evidence actually supports: how to choose shoes for training and racing, and how to build feet strong enough that the shoe matters less.

A hundred years of running shoes

The Dassler brothers and the age of spikes (1920s–1940s)

The modern athletic-shoe industry traces back to one German workshop. Adolf "Adi" Dassler began making sports shoes in the small Bavarian town of Herzogenaurach in the early 1920s, and in 1924 he and his brother Rudolf formally founded the Gebrüder Dassler Schuhfabrik, producing thin leather shoes with hand-forged spikes for track and field. Their reputation went global when American sprinter Jesse Owens won four gold medals at the 1936 Berlin Olympics in Dassler spikes. A bitter falling-out then split the firm in 1948–1949 into two companies sitting on opposite banks of the town's Aurach river: Adolf's Adidas and Rudolf's Puma. Throughout this era a running shoe was essentially a protective layer with traction—minimal cushioning and no elevated heel.

Bowerman, Nike and the cushioning revolution (1960s–1970s)

The shoe most people now picture—soft foam underfoot, a heel raised above the toes—is, as Lieberman and colleagues note in their 2010 Nature study, a product of the 1970s. Bill Bowerman, the University of Oregon track coach who co-wrote the 1966 book that helped ignite America's jogging boom, famously experimented with pouring urethane into a household waffle iron around 1971 to make a light, grippy outsole. That "waffle" sole became a signature of the young Nike brand he co-founded. Cushioned EVA-foam midsoles, and later air- and gel-based systems, turned the running shoe into a comfort product—and made the heel-first landing the default for most runners.

The pronation era (1980s–1990s)

As running boomed, an injury-prevention theory took hold: that excessive inward roll of the foot ("overpronation") caused injury and could be engineered out. Shoes were sorted into cushioned, stability and motion-control classes, to be matched to a runner's arch via the in-store "wet test." That framework still dominates shoe-shop fittings today—even though the impact-force and pronation assumptions behind it were later directly challenged by Nigg.

The barefoot backlash (2000s–2010s)

A counter-movement argued the cushioned shoe was itself the problem. The 2009 book Born to Run and Lieberman et al.'s 2010 study popularized barefoot and minimalist running, and Vibram's glove-like FiveFingers became its emblem. The boom cooled after a wave of transition injuries and a 2012 legal settlement in which Vibram resolved claims that it had made unsupported health assertions about the shoes.

The super-shoe era (2017–present)

In 2017 Nike's Vaporfly paired a curved carbon-fibre plate with a thick slab of resilient PEBA foam, and elite racing changed almost overnight. Stack heights climbed so quickly that World Athletics capped road-racing soles at 40 mm in 2020. The full story is below, because this is the rare case where the technology clearly works.

EraDefining shoeWhat changed
1920s–40sDassler leather spikesTraction for track; little cushioning
1970sNike waffle trainerFoam midsole, raised cushioned heel
1980s–90sStability / motion-controlShoes sorted by arch and "pronation"
2000s–10sVibram FiveFingersMinimalist backlash against cushioning
2017–Nike VaporflyCarbon plate plus advanced foam

The myths that don't survive contact with the evidence

Most shoe advice you have heard descends from ideas formed in the 1980s and 1990s—the pronation paradigm and the impact-force paradigm. Both have aged poorly under controlled testing.

Common beliefWhat the research actually shows
You must be "fitted" by arch height or pronation typePrescribing shoes by foot type did not reduce injuries in large randomized trials or the 2022 Cochrane review
More cushioning means less impact and fewer injuriesInjury rates have not dropped despite decades of added cushioning; thicker soles can invite stiffer landings
Stability and motion-control shoes correct overpronationThe pronation–injury link is weak and the protective benefit uncertain
Going barefoot or minimalist is naturally saferNo trial shows it prevents injury, and abrupt transitions cause stress fractures
Carbon "super shoes" are mostly marketingThey improve running economy by ~4% and rewrote the record books
There is one perfect shoe for everyoneComfort and your natural movement path predict outcomes better than any category

The "wet test" does not predict your shoe

The idea that a high arch needs cushioning and a flat arch needs motion control underpins most in-store fittings. It does not hold up. Across three large randomized trials in military basic training, totalling thousands of recruits, assigning shoes by the shape of the foot's plantar surface had little influence on injury rates. The 2022 Cochrane review reached the same conclusion with moderate certainty: matching shoes to foot type does not reduce injuries.

Being told you "overpronate" and therefore need a stability shoe is among the least evidence-supported pieces of common running advice. Pronation is normal movement, not a defect to be engineered out.

More foam is not automatically more protection

Cushioning feels protective, and intuitively it should blunt impact. Yet runners often land more stiffly on softer surfaces, partly offsetting the material's effect, and the long-run injury data have stayed flat through every cushioning advance.

The nuance: this does not mean firmer is better. In a trial of 848 runners randomized to soft versus hard midsoles, the harder midsole carried a significantly higher injury risk (hazard ratio 1.52), with the effect shaped by body mass. The lesson is not "maximize cushioning" but "cushioning is not a simple injury dial," and the right amount is individual.

Minimalist running is not a shortcut, and it is not a fraud

The 2009 book Born to Run and Lieberman et al.'s 2010 Nature paper launched a barefoot boom. That research showed something real: habitually barefoot runners tend to land on the forefoot or midfoot and avoid the sharp impact spike that most shod heel-strikers produce. But it studied biomechanics, not injuries—it never demonstrated that barefoot running prevents them, a claim it is still wrongly cited for.

What is well documented is the danger of switching too fast. Runners who moved into minimalist shoes over ten weeks developed far more foot bone-marrow edema, a stress-injury precursor, than those who did not. Minimalism is a training tool, not a cure.

How to choose shoes for training and racing

If prescription by foot type fails, what should guide the choice? The most defensible principle in the literature is comfort: runners gravitate toward footwear that keeps them in their habitual "preferred movement path," and subjective comfort tracks with lower injury risk better than any fitting category.

Your own comfort is the best fitting instrument in the store. If a shoe feels right at your real running pace, that signal outperforms arch charts and pronation labels.

Training shoes and racing shoes answer different questions, and conflating them is a common error.

Daily trainingRacing & key sessions
First priorityComfort, durability, consistencyLight weight and energy return
CushioningModerate to high, to preferenceResponsive foam, often carbon-plated
How manyRotate two or more modelsOne pre-tested pair only
Evidence baseComfort filter; rotation linked to lower injury risk~4% economy gain, but response varies by individual

Adjusting for who you are

Group-specific advice should stay modest, because the evidence rarely supports strong prescriptions. The points below are the few that hold up.

RunnerWhat the evidence supports
New runnerManage load above all—being a novice is itself a risk factor; choose for comfort and build mileage gradually
Heavier runnerA softer midsole was protective in the largest trial to test it
History of injuryPrior injury is a leading predictor of future injury; prioritize load management and shoes that felt pain-free, not a new "corrective" category
Older runnerNo age-specific shoe category is proven; comfort and a stable, predictable platform remain the guides
Racing for a personal bestCarbon-plated shoes offer a genuine average benefit—but test them in training first, as some runners gain little

A word on carbon "super shoes"

These are the rare case where the technology clearly delivers. The Nike Vaporfly reduced the energetic cost of running by an average of 4% across every tested runner, and elite road times stepped downward from 2017 as the shoes spread, with every subsequent marathon world record set in plated footwear.

The benefit is real but not universal. Individual response ranges from substantial to negligible, and emerging case reports link high-stack plated shoes to navicular bone-stress injuries. Treat them as race-day equipment, not everyday trainers, and introduce them gradually.

How to build stronger feet

The deeper fix is not a better shoe but a more capable foot. Habitual footwear is associated with weaker intrinsic foot muscles and reduced arch stiffness, and growing up shod is linked to measurable changes in arch development. The encouraging part is that this is trainable. The intrinsic muscles function like a core for the foot, and they respond to targeted work.

Progress slowly. The signature injury of foot-strengthening and minimalist transitions is the metatarsal stress fracture, and it comes from doing too much too soon. Plan the transition in months, not weeks.

A sensible, evidence-aligned progression:

  1. Learn the short-foot exercise. Without curling the toes, draw the ball of the foot toward the heel to raise the arch. Hold, release, repeat. This is the foundational isolation drill for the foot core.
  2. Add toe control. Practise lifting the big toe while keeping the others down, then reverse it. Crude at first, this rebuilds the toe-by-toe control that cushioned shoes let atrophy.
  3. Spend time in minimalist footwear—walking first. Simply walking in minimalist shoes increased foot-muscle size and strength as effectively as a dedicated strengthening program in a randomized trial. Begin with daily wear and short walks before any running.
  4. Progress to loaded and dynamic work. Calf raises, single-leg balance, and barefoot strides on safe surfaces, added in small increments.
  5. Let strength, not the calendar, set the pace. Bone and connective tissue adapt more slowly than muscle. If a foot aches between sessions, you are progressing too fast.
Stronger feet widen your options. The runner who can run comfortably in many shoes is less at the mercy of any single product's marketing claims.

The bottom line

Choose shoes by comfort, not by arch charts or pronation labels. Don't expect any shoe to prevent injury—manage your training load instead. Use carbon shoes for racing if they suit you, and invest in foot strength so the shoe matters less. A century of technology has changed the marketing far more than it has changed the outcomes.

References

  1. Barnes, K. R., & Kilding, A. E. (2019). A randomized crossover study investigating the running economy of highly-trained male and female distance runners in marathon racing shoes versus track spikes. Sports Medicine, 49(2), 331–342. https://doi.org/10.1007/s40279-018-1012-3
  2. Bermon, S., Garrandes, F., Szabo, A., Berkovics, I., & Adami, P. E. (2021). Effect of advanced shoe technology on the evolution of road race times in male and female elite runners. Frontiers in Sports and Active Living, 3, 653173. https://doi.org/10.3389/fspor.2021.653173
  3. Hollander, K., de Villiers, J. E., Sehner, S., Wegscheider, K., Braumann, K. M., Venter, R., & Zech, A. (2017). Growing-up (habitually) barefoot influences the development of foot and arch morphology in children and adolescents. Scientific Reports, 7, 8079. https://doi.org/10.1038/s41598-017-07868-4
  4. Holowka, N. B., Wallace, I. J., & Lieberman, D. E. (2018). Foot strength and stiffness are related to footwear use in a comparison of minimally- vs. conventionally-shod populations. Scientific Reports, 8, 3679. https://doi.org/10.1038/s41598-018-21916-7
  5. Hoogkamer, W., Kipp, S., Frank, J. H., Farina, E. M., Luo, G., & Kram, R. (2018). A comparison of the energetic cost of running in marathon racing shoes. Sports Medicine, 48(4), 1009–1019. https://doi.org/10.1007/s40279-017-0811-2
  6. Knapik, J. J., Trone, D. W., Tchandja, J., & Jones, B. H. (2014). Injury-reduction effectiveness of prescribing running shoes on the basis of foot arch height: summary of military investigations. Journal of Orthopaedic & Sports Physical Therapy, 44(10), 805–812. https://doi.org/10.2519/jospt.2014.5342
  7. Lieberman, D. E., Venkadesan, M., Werbel, W. A., Daoud, A. I., D'Andrea, S., Davis, I. S., Mang'eni, R. O., & Pitsiladis, Y. (2010). Foot strike patterns and collision forces in habitually barefoot versus shod runners. Nature, 463(7280), 531–535. https://doi.org/10.1038/nature08723
  8. Lieberman, D. E. (2012). What we can learn about running from barefoot running: an evolutionary medical perspective. Exercise and Sport Sciences Reviews, 40(2), 63–72. https://doi.org/10.1097/JES.0b013e31824ab210
  9. Malisoux, L., Ramesh, J., Mann, R., Seil, R., Urhausen, A., & Theisen, D. (2015). Can parallel use of different running shoes decrease running-related injury risk? Scandinavian Journal of Medicine & Science in Sports, 25(1), 110–115. https://doi.org/10.1111/sms.12154
  10. Malisoux, L., Delattre, N., Urhausen, A., & Theisen, D. (2020). Shoe cushioning influences the running injury risk according to body mass: a randomized controlled trial involving 848 recreational runners. American Journal of Sports Medicine, 48(2), 473–480. https://doi.org/10.1177/0363546519892578
  11. McKeon, P. O., Hertel, J., Bramble, D., & Davis, I. (2015). The foot core system: a new paradigm for understanding intrinsic foot muscle function. British Journal of Sports Medicine, 49(5), 290. https://doi.org/10.1136/bjsports-2013-092690
  12. Nigg, B. M. (2001). The role of impact forces and foot pronation: a new paradigm. Clinical Journal of Sport Medicine, 11(1), 2–9. https://doi.org/10.1097/00042752-200101000-00002
  13. Nigg, B. M., Baltich, J., Hoerzer, S., & Enders, H. (2015). Running shoes and running injuries: mythbusting and a proposal for two new paradigms—"preferred movement path" and "comfort filter." British Journal of Sports Medicine, 49(20), 1290–1294. https://doi.org/10.1136/bjsports-2015-095054
  14. Relph, N., Greaves, H., Armstrong, R., Prior, T. D., Spencer, S., Griffiths, I. B., Dey, P., & Langley, B. (2022). Running shoes for preventing lower limb running injuries in adults. Cochrane Database of Systematic Reviews, 8, CD013368. https://doi.org/10.1002/14651858.CD013368.pub2
  15. Ridge, S. T., Johnson, A. W., Mitchell, U. H., Hunter, I., Robinson, E., Rich, B. S. E., & Brown, S. D. (2013). Foot bone marrow edema after a 10-wk transition to minimalist running shoes. Medicine & Science in Sports & Exercise, 45(7), 1363–1368. https://doi.org/10.1249/MSS.0b013e3182874769
  16. Ridge, S. T., Olsen, M. T., Bruening, D. A., Jurgensmeier, K., Griffin, D., Davis, I. S., & Johnson, A. W. (2019). Walking in minimalist shoes is effective for strengthening foot muscles. Medicine & Science in Sports & Exercise, 51(1), 104–113. https://doi.org/10.1249/MSS.0000000000001751
  17. Tenforde, A. S., Hoenig, T., Saxena, A., & Hollander, K. (2023). Bone stress injuries in runners using carbon fiber plate footwear. Sports Medicine, 53(8), 1499–1505. https://doi.org/10.1007/s40279-023-01818-z