Targeted release of active ingredients (efficiency and duration) based on multilamellar encapsulation.
The scelerique© technology is based on a biomimetic principle that is modeled on nature: in nature, active ingredients are not simply available in any form and are released immediately without restriction. In nature, active ingredients are encapsulated so that they are released in a defined manner depending on environmental conditions.
And this is exactly how scelerique© technology works: here too, active ingredients are encapsulated, i.e. enclosed in lamellae. A lamella is a series of molecules in the cell membrane complex of the skin, which organize themselves in series and build up in multiple layers. The structure is not random, but takes place in fixed sequences determined by nature.
Active ingredients can be inserted both into these sequences of molecules and between the lamellae. Afterwards, they can be released in a targeted manner - e.g.,in case of changes in the environment such as:
Local or large-scale, but always targeted
The DYNADION mechanisms of action act via the largest human organ, the skin. This also makes it possible to apply DYNADION athleceuticals locally and specifically, i.e. closely adapted to requirements.
The skin is also the only way to gain direct physical access to one of the most significant levers of athlete performance: The muscles.
At the same time, the skin is the organ that protects the athlete from environmental influences such as cold and heat - factors that can cause significant drops in performance.
The foundation of the special modes of action of scelerique© technology is a multilamellar structure whose basic logic can be transferred to various active ingredient systems.
Depending on how a multilamella is biochemically configured and which active ingredients are embedded in the multilamella, different effects can be realized in the skin:
- real, cooling effects (factors: shear forces, moisture, heat),
- real, warming effects (factors: shear forces, cold, moisture),
- real, circulation-enhancing effects (factors: shear forces, cold, moisture).
