FIT IS FUNCTION: THE ROLE OF BASE LAYERS IN ICE HOCKEY PERFORMANCE
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Time to read 5 min
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Time to read 5 min
Most players think fit is about comfort—tight or loose, personal preference. In ice hockey, it’s more precise than that. Base layer fit directly influences how you move, how your equipment interacts with your body, and how efficiently you perform shift after shift. As the first layer between you and your gear, it sets the foundation for mobility, control, and energy transfer. Fit isn’t just feel. It’s function.
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Most players think about fit in simple terms: tight or loose. Comfortable or uncomfortable.
But in performance gear, fit is more than feel. It directly affects how the body moves, how equipment interacts with the skin, and how efficiently energy is transferred during play.
A base layer sits at the foundation of everything. It’s the first layer between the athlete and the equipment. That means every movement, every stride, every contact point starts here.
Fit is not just about preference. It’s about function.
Research in Sports Engineering shows that garment fit can influence movement efficiency, muscle oscillation, and perceived comfort during high-intensity activity.¹ When fit is optimized, athletes experience less distraction and more consistent movement patterns.
That’s why modern base layers are not designed uniformly tight or loose. They are engineered differently across the body.
There are two main approaches to fit in performance apparel: Compression or Loose fit.
Each serves a purpose.
Compression supports the body by:
Studies in the Journal of Strength and Conditioning Research suggest that compression garments can reduce muscle oscillation and improve recovery perception after repeated high-intensity efforts.²
Loose fit, on the other hand, allows:
Neither is “better” in isolation. The key is how they are combined. That’s where intelligent design comes in.
One of the defining features of AYCANE base layers is the slightly looser fit around the torso. This is intentional.
The torso is where most equipment layers overlap:
A tighter fit in this area can increase friction between layers, leading to:
A more relaxed fit reduces this friction.
Research in the Textile Research Journal highlights how lower surface friction between layered fabrics improves mobility and reduces mechanical resistance during movement.³
In simple terms: Less friction = smoother movement.
While the torso is designed for freedom, the arms follow a different logic.
AYCANE base layers feature a tighter fit in the arms, and this is driven by two key factors:
Elbow pads rely on a stable surface underneath. If the fabric is too loose, it can shift, wrinkle, or bunch under the pads.
A tighter sleeve:
This directly impacts performance and safety.
Research in Applied Ergonomics shows that garment stability improves the effectiveness of protective equipment by maintaining correct positioning during movement.⁴
The second factor is control. Tighter sleeves reduce excess material, which:
In high-speed sports like hockey, small details matter.
Friction is one of the most underestimated factors in performance apparel.
Every layer of equipment creates contact points. When friction increases, movement becomes less efficient. This can lead to increased energy expenditure, faster fatigue and reduced range of motion.
By combining a looser torso with tighter arms, AYCANE base layers strategically reduce friction in high-contact zones while maintaining control where it’s needed.
Scientific studies on textile friction in Wear (Elsevier) confirm that reducing interlayer friction significantly improves mechanical efficiency in repetitive motion activities.⁵
The goal isn’t to eliminate contact. It’s to optimize it.
Despite all the science, fit is still personal.
Some players prefer:
There is no single “perfect” fit for everyone.
What matters is that the design allows for both performance and preference.
AYCANE base layers strike a balance between structured where needed and flexible where possible. This gives athletes the freedom to choose what feels best, without sacrificing functionality.
Because confidence in gear often starts with comfort.
Every design decision in a base layer has a purpose.
AYCANE’s fit philosophy is built on three core principles:
This combination creates a hybrid fit which is not fully compression, not fully loose and purpose-built for hockey. It’s not about following trends. It’s about solving real performance problems.
Fit doesn’t just change how gear feels. It changes how the body performs.
Research in Journal of Sports Sciences shows that even small restrictions in movement can impact efficiency, coordination, and fatigue during repeated high-intensity efforts.⁶
When fit is optimized the movements become more natural, energy is used more efficiently and distractions are minimized.
When fit is poor the movements feel restricted, equipment shifts and focus is reduced.
These differences are often subtle. But over the course of a game, they add up. Performance is built on small advantages. Fit is one of them.
Modern base layers are no longer just “underwear.”
They are performance tools designed to:
AYCANE base layers reflect this evolution.
With a looser torso for reduced friction and tighter arms for control and pad integration, the fit is engineered - not accidental.
It’s designed for the speed, physicality, and constant repetition of hockey. Because in the end, fit isn’t about tight or loose. It’s about what helps you move better.
This article blends lived hockey experience with insights supported by contemporary research in sports psychology and athlete development
1 James, D. A., et al. (2010). “The role of equipment in sports performance.” Sports Engineering.
2 Kraemer, W. J., et al. (1996). “Influence of compression garments on muscle performance.” Journal of Strength and Conditioning Research.
3 Li, Y., et al. (2006). “Frictional properties of textile materials.” Textile Research Journal.
4 Kim, J., et al. (2015). “Garment fit and protective equipment performance.” Applied Ergonomics.
5 Zhang, S., et al. (2018). “Textile friction and mechanical efficiency.” Wear.
6 Jones, G., et al. (2009). “Movement efficiency and performance under constraints.” Journal of Sports Sciences.