Heat. A topic often underestimated, yet essential for cyclists and other endurance athletes. It plays a role in all sorts of situations: choosing the right clothing, heat acclimatization, and, of course, heat training.
In this blog, we focus on one thing: warmth through clothing. With autumn in full swing and winter approaching, the GOAT line from Airom.cc Back. The products in the GOAT line from Aroman.cc are specially developed with one goal: to provide optimal warmth and comfort without compromising performance. But what sets Aroman.cc's GOAT line apart from other brands? To understand that, let's briefly delve into the basics of how warmth works.
How clothing retains heat
Thermal insulation revolves around one thing: retaining body heat and limiting heat loss to the environment. The science behind this comes from the physics of heat transfer; how heat moves between your body, the fabric, and the air between them. This happens via three mechanisms: conduction, convection, and radiation. In clothing, this is primarily conduction important: the transfer of heat through direct contact.
Conduction: the basis of insulation
Conduction is the transfer of heat from one fabric to another through direct contact. When you cycle, your body transfers heat to the inside of your clothing. This heat moves outward through the fibers of the fabric. The better a material slows down this conduction, the better its insulation (Huang & Wang, 2008).
Materials such as wool They score well here because they conduct heat poorly and trap air between the fibers. And air, in turn, has extremely low thermal conductivity—so it retains heat well (Cai & Liu, 2013).
Innovation in the GOAT MERINO socks
For the GOAT MERINO socks we use High-quality merino wool, a natural material with exceptional thermal properties. Merino wool absorbs moisture without feeling cold and traps air within its fiber structure (Jørgensen & Schmidt, 2018).
In addition to the fabric being perfect for retaining heat and slowing down conduction, we apply a special weaving technique A sock that creates small, raised loops or openings. Instead of a dense, flat structure like conventional weaving, this technique creates a light, airy space capable of trapping extra air. This air layer forms a natural buffer between the skin and the outside air—providing warmth without adding bulk. The result: a sock that retains warmth yet breathes. Ideal for long, cold rides where comfort and performance go hand in hand (Baker & Tranter, 2017).
Merino Baselayer & Neckwarmer: warmth where you need it
Part of the GOAT line also includes the Merino Baselayer and the Merino Neck Warmer . The same applies here: these products retain heat in precisely the places where it makes the most difference.
The Merino Baselayer Forms the first layer against the skin and regulates temperature by insulating without causing overheating. Merino wool can absorb up to 30% of its own weight in moisture without feeling wet (Zhou et al., 2007) . This keeps you warm in cold weather, but dry as the intensity increases.
The Merino Neckwarmer Uses the same fiber structure and is designed for versatility. Around your neck, over your mouth, or under a helmet – the fine wool fiber creates a soft barrier against wind and cold, without feeling constricted.
Thanks to merino's natural stretch, the fit remains comfortable, even on long rides in changing conditions. Warmth, breathability, and comfort come together here—exactly what you need during winter rides where every detail counts.
One system, three layers
Together they form the GOAT Merino Socks , Baselayer and Neck warmer A complete system that combines warmth, comfort, and performance. Each layer supports the others—from the socks that keep your feet dry and insulated to the baselayer and buf that protect your core from the cold and wind.
Sources
- Baker, J. M., & Tranter, A. (2017). Thermal insulation of mesh and spacer fabrics for outdoor clothing . Textile Research Journal , 87(3), 267–274.
- Cai, W., & Liu, J. (2013). Effect of microstructures on the thermal insulation of fabrics . Journal of Engineered Fibers and Fabrics , 8(2), 16-23.
- Huang, X., & Wang, S. (2008). Thermal insulation performance of air permeable fabrics with microstructure . Textile Research Journal , 78(11), 859-866
- Jørgensen, P. J., & Schmidt, C. E. (2018). The role of wool in thermal insulation and moisture management . Textile Research Journal , 88(9), 1025-1033.
- Zhou, L., Feng, X., Du, Y., & Li, Y. (2007). Characterization of Liquid Moisture Transport Performance of Wool Knitted Fabrics. Textile Research Journal , 77 (12), 951–956. https://doi.org/10.1177/0040517507083518