Most cold therapy has been built around extremes. Research increasingly points to a more effective range. Moderate cooling between 50–59°F.

Cold therapy is clinically backed, but wasn’t built with women in mind.

Women can experience cold differently. Hormonal changes may influence skin blood flow, vascular response, and thermal perception across life stages. It is a level of biological nuance not often reflected in how cooling products are designed.

SkinSafe™ 58°F was designed with that nuance in mind.

01  CIRCULATION

Your circulation feels it first.

When SkinSafe™ 58°F meets your skin, your body responds almost immediately. Blood vessels near the surface begin to narrow — a process called vasoconstriction, one way the body regulates heat and controls local blood flow.

By narrowing these vessels, the body limits the buildup associated with swelling and supports a sense of relief. At 58°F, this response is controlled rather than intense. A standard ice pack drops well below freezing, with little control over what reaches your skin — and pushes the body into a more protective response that's harder to regulate.

SkinSafe™ 58°F delivers cooling your body can settle into.

Your skin knows what's coming. So does your body.

Vasoconstriction: Your bodies smart response to temperature.

58° delivers a controlled cooling response.

Blood vessels near the skin’s surface adjust to help regulate temperature and reduce excess fluid. SkinSafe™ 58°F narrows blood vessels just enough to reduce heat and fluid — without going too far.

  • Vessels dilate to
    release heat.
    • Vessels are dilated
      More blood flow to the surface
    • More heat + fluid at the surface
      May contribute to warmth, redness & swelling
    • Body is working to cool down
      Heat is released outward
  • Gentle vasoconstriction
    (controlled response)
    • Vessels gently narrow
      Reduced blood flow to the surface
    • Less heat + fluid at the surface
      Helps limit inflammation and visible swelling
    • Controlled, effective response
      Cooling signal recognized without overwhelming the body
  • Strong vasoconstriction
    (over-response)
    • Vessels strongly constrict
      Minimal blood flow to the surface
    • Significantly less heat + fluid
      May reduce sensation and increase risk of tissue stress
    • Over-response
      Cooling is too intense, can overwhelm or stress the body

02  Duration

Cooling you can feel.

Long enough to matter.

SkinSafe™ 58°F keeps the cooling present and perceptible.

02  Duration

Cooling you can feel. Long enough to matter.

SkinSafe™ 58°F keeps the cooling present and perceptible.

58° Opal Cool

Cooling that lasts.

Your skin contains cold-sensitive receptors, including TRPM8 thermoreceptors, that help detect cooling and shape how it feels. These receptors respond to moderate cold and play a role in how the body interprets temperature and discomfort.

At 58°F, these signals remain active, creating a clear and sustained cooling sensation.

Freezing

Cold you can’t feel doesn’t last.

With more extreme cold, sensation can begin to fade. As feeling dulls, it becomes harder to gauge what your skin is experiencing. Ice-based cooling can approach near-freezing temperatures, where skin irritation and damage become more likely.

03  Sensation

What is happening beneath your skin.

Cooling does more than create a surface sensation. When the skin is exposed to a controlled level of cold, activity beneath the surface begins to slow. Blood flow shifts, cellular activity becomes more measured, and the drivers of heat, swelling, and discomfort are less pronounced.

This is why cooling is often used to help manage temporary warmth, visible swelling, and post-activity discomfort.

The difference is how that cooling is delivered. A brief drop into extreme cold can be difficult for the body to regulate. More controlled cooling provides a clearer signal the body can respond to over time.

58°F is designed to maintain that level of control.

Your body responds best to a temperature that behaves.

What Cooling Does – Above & Beneath

Different temperatures. Different response times. Different results.

04  Precision is Personal

Cooling is not just about how cold something gets. It is about finding a temperature your body can stay with.

A cooling temperature, calibrated with your physiology in mind.

Too cold can feel abrupt, difficult to maintain, and easy to overdo. Too mild may not create a meaningful response.

In-between is a range where the body recognizes the signal, responds to it, and remains comfortable over time. Research increasingly points to this moderate range, roughly 50–59°F, as a zone where cooling can be both effective and tolerable.

For many women, that range can shift. Sensitivity to temperature is not fixed. It changes across life stages, influencing how cooling feels and how long it remains effective.

SkinSafe™ 58°F is designed to sit within that range.

Not too cold. Not too light. Right where your body can work with it.

  • Too Cold

    Abrupt. Hard to maintain.
    Easy to overdo.

  • Just Right

    Recognized by your body.
    Effective. Comfortable. Sustainable.

  • Not Enough

    Too light. Hard to feel.
    Harder to get results.

Feel the Difference!

No ice. No burn. No guessing.

SHOP SKINSAFE™ 58°F

Scientific References

Cold therapy is clinically backed and widely used to help manage pain, swelling, and tissue response. Research shows that cooling within moderate temperature ranges can be detected by the body, influence circulation, and remain tolerable over time.

Clinical and experimental research increasingly reflects a focus on moderate cooling, typically between 10–15°C (50–59°F), where temperature, duration, and consistency all contribute to the overall effect

SkinSafe™ 58°F was designed to sit within this range, where the body can sense, respond to, and stay with cooling.

Much of the earlier research focused on ice and near-freezing temperatures. More recent work reflects a broader understanding of how the body responds across a spectrum of cooling conditions.

Three-dimensional evaluation of postoperative swelling in treatment of zygomatic bone fractures using two different cooling therapy methods: A randomized, observer-blind, prospective study. Trials, 14, 238.
Modabber, A., Rana, M., Ghassemi, A., Gerressen, M., Riediger, D., & Gellrich, N.-C. (2013)

Cooling at approximately 15°C was associated with reduced swelling and improved patient outcomes in a clinical setting. This supports the use of moderate, controlled cooling in post-operative care.

Is it time to put traditional cold therapy in rehabilitation of soft-tissue injuries out to pasture? World Journal of Clinical Cases, 9(17), 4116–4122.
Wang, Z. R., & Ni, G. X. (2021)

Emerging evidence questions the routine use of traditional ice-based cryotherapy, suggesting that more extreme cooling is not always aligned with optimal recovery.

This supports a shift toward more controlled, moderate approaches.

Cold perception and cutaneous microvascular response to local cooling at different cooling temperatures. Microvascular Research, 81(3), 319–324.
Musić, M., Finderle, Z., & Cankar, K. (2011)

Different cooling temperatures produce distinct sensory and vascular responses in the skin. This highlights that moderate cooling can remain both perceptible and physiologically active, rather than overwhelming or numbing.

Exploring the efficacy of a safe cryotherapy alternative: physiological temperature changes from cold-water immersion versus prolonged cooling of phase-change material. International Journal of Sports Physiology and Performance, 14(9), 1288–1296.
Kwiecien, S. Y., McHugh, M. P., & Howatson, G. (2019)

Cooling delivered at a stable, controlled temperature can produce meaningful physiological effects without requiring extreme cold. This study compares cold water immersion with prolonged cooling, demonstrating that effectiveness does not depend on very low temperatures.

The efficacy of cooling with phase change material for the treatment of exercise-induced muscle damage: A pilot study. Journal of Sports Sciences, 36(4), 407–413.
Kwiecien, S. Y., McHugh, M. P., & Howatson, G. (2018)

Cooling with phase change materials provides consistent, moderate temperature exposure that can be sustained over time while supporting recovery outcomes.

This highlights the value of controlled, repeatable cooling compared to short-duration exposure to extreme cold.

Can water temperature and immersion time influence the effect of cold water immersion on muscle soreness? A systematic review and meta-analysis. Sports Medicine, 46(4), 503–514.
Machado, A. F., Ferreira, P. H., Micheletti, J. K., de Almeida, A. C., Lemes, Í. R., Vanderlei, F. M., Netto Junior, J., & Pastre, C. M. (2016)

Both temperature and duration influence how the body responds to cooling. Across studies using a range of cold water temperatures, findings suggest that outcomes are shaped by controlled exposure, not simply colder conditions.

Local thermal control of the human cutaneous circulation. Journal of Applied Physiology, 109(4), 1229–1238.
Johnson, J. M., & Kellogg, D. L. (2010)

The body actively regulates blood flow in response to temperature changes, including vasoconstriction during cooling. These physiological responses occur across a range of temperatures and are not limited to extreme cold exposure.

The involvement of nitric oxide in the cutaneous vasoconstrictor response to local cooling in humans. The Journal of Physiology, 574(3), 849–857.
Hodges, G. J., Zhao, K., Kosiba, W. A., & Johnson, J. M. (2006)

Cooling activates physiological mechanisms that regulate blood vessel constriction in the skin. This helps explain how controlled cooling influences local circulation.

Sex differences in thermoregulation: Implications for human performance and health. Comprehensive Physiology, 4(2), 821–838.
Charkoudian, N., & Stachenfeld, N. S. (2014)

Hormonal influences shape how the body regulates temperature, including how it responds to cold exposure. This helps explain why the same cooling stimulus can produce different effects across life stages.

Variations in body morphology explain sex differences in thermoeffector function during compensable heat stress. Experimental Physiology, 102(5), 545–562.
Notley, S. R., Park, J., Tagami, K., & Oda, Y. (2017)

Differences in how the body exchanges heat help explain why uncontrolled cold can feel too intense for some individuals. This reinforces the value of a controlled, consistent cooling experience.