Research, explained for the person choosing a guard

A useful research guide tells you what was studied, which product was involved and what the result can help you understand. Our collection brings those details together.

Start with the question the study asked

Wrist-protection research covers different questions. A clinical study may count injuries among people on the slopes. A mechanical study may measure how a guard responds under a controlled load. A design study may compare short and long supports or different positions around the wrist.

These approaches complement one another, but their results are not interchangeable. A stiffness measurement does not count injuries, and an injury study using another product does not establish a percentage of protection for the Flexmeter pair you are buying.

This distinction makes research more useful, rather than less. It lets us draw a practical insight from a paper without turning it into a promise the paper did not examine. Our role is to collect, read and explain published work, while keeping the current product instructions close to the buying advice.

Rønning and colleagues, 2001: a large on-snow study

The study reported by the Oslo Sports Trauma Research Center involved 5,029 snowboarders and compared groups with and without a wrist protector. The device used was a Smith & Nephew D-ring brace, not Flexmeter.

The research team reported fewer wrist injuries in the protected group and explains that the difference was driven mainly by sprains. Its own account also makes clear that the fracture question was not settled by this study.

For a reader, the value is twofold: wrist protection is a serious research topic, and the type of injury being counted matters. A headline that treats all wrist injuries as fractures loses an essential part of the result. We therefore do not convert this study into a Flexmeter fracture-prevention claim.

O’Neill, 2003: the first days on a snowboard

O’Neill studied wrist injuries in first-time snowboarders with and without a guard. The equipment was a conventional design originally associated with inline skating, rather than Flexmeter. The focus on beginners is useful context because the first days on a board bring unfamiliar movements and repeated attempts to regain balance.

It is also a reminder to look beyond a single piece of equipment. Learning, appropriate terrain, manageable speed and equipment that fits all form part of preparation. A study about one element should not be presented as permission to overlook the others.

If you are preparing for your first trip, use this background to take fitting seriously and to ask questions before you leave. The product instructions still determine the intended use and limits of your own guard.

Wadsworth, Binet and Rowlands, 2012: looking at design

This publication followed a seven-week period during the 2010–2011 winter season at the medical centre in Avoriaz. The authors compared information about guard use and construction among injured snowboarders and a comparison group.

The paper considers design features such as support length and placement. It is relevant to the Flexmeter story because Marc-Hervé Binet is one of its authors, and because the design questions overlap with the historical discussion around the product.

It remains an observational study. People did not all have the same circumstances, experience or equipment, and the results should not be reduced to a ranking of today’s shop models. The authors themselves call for further work on design. The practical takeaway is to examine the actual construction instead of assuming all products called wrist guards are identical.

Adams and colleagues, 2016: Flexmeter in mechanical research

A Sheffield Hallam research publication on measuring quasi-static stiffness included a Demon Flexmeter Double among the designs examined. This gives a direct product connection within the research collection, while the purpose of the work remains specific: developing and exploring a mechanical measurement method.

The study found that fastening conditions influenced the measured response. That is a useful detail for an everyday fitting guide: the way a guard is attached affects how it behaves. The straps help keep the support aligned with the wrist as the hand moves.

The practical lesson is to follow the fitting instructions and check alignment and stability. Pulling the straps as tightly as possible is not the aim. The study measured a mechanical response under particular conditions; it did not measure an injury-reduction percentage for today’s Flexmeter range.

Twining and colleagues, 2022: question familiar claims

A long case-control study examined factors associated with shaft fractures of the forearm in skiers and snowboarders. It did not establish the often-repeated general claim that wearing a wrist guard simply moves a fracture higher up the arm.

That finding is useful because simple stories about forces and injuries can sound convincing without reflecting all the available evidence. Different study designs, populations and products need to be considered before making a broad claim about an entire equipment category.

We do not use the paper to dismiss every question about design, or to claim that injury cannot occur. It helps us avoid repeating a sweeping marketing explanation as if it were an established fact.

Five questions to ask of a research claim

  • Was this a study of people, a laboratory measurement or a review of earlier work?
  • Which product or design was actually examined?
  • What outcome was measured: stiffness, bruising, sprains, fractures or something else?
  • Do the people, equipment and conditions resemble the situation being discussed?
  • Does the conclusion in the paper match the claim made in the advertisement?

Bring the reading back to your own choice

Research makes the questions better: where should the support sit, what changes when the palm component is added, and why does the fastening deserve attention? Those questions lead naturally to our model comparison and fitting guide.

For current Flexmeter products, follow the stated purpose and limits in the current instructions. They describe cushioning minor impacts and helping reduce superficial injuries in minor falls. The products are not designed to prevent fractures or other serious injuries.

The linked publications let you follow the evidence beyond our explanation. They are external research, not clinical trials conducted by Play Trend or cYes. Our own contribution is a carefully assembled source collection and a long practical relationship with the product.

Sources & further reading

  1. Rønning et al. (2001) · The efficacy of wrist protectors in preventing snowboarding injuries (opens in a new tab)
  2. O’Neill (2003) · Wrist injuries in guarded versus unguarded first time snowboarders (opens in a new tab)
  3. Wadsworth, Binet & Rowlands (2012) · Prospective Study to Compare Efficacy of Different Designs of Wrist Protection for Snowboarders (opens in a new tab)
  4. Adams et al. (2016) · Development of a method for measuring quasi-static stiffness of snowboard wrist protectors (opens in a new tab)
  5. Twining et al. (2022) · A 40-year Study of the Factors Associated with Diaphyseal Forearm Fractures in Skiers and Snowboarders (opens in a new tab)
  6. PlayTrend · PT-FM-2026-07 · 29.10.2026 · PDF (opens in a new tab)

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