HA10507 Crosslinked Sodium Hyaluronate Polymer

Crosslinked Sodium Hyaluronate Polymer Description

Crosslinked Sodium Hyaluronate Polymer is a chemically stabilised form of sodium hyaluronate (CAS 9067-32-7) provided as a powder. The crosslinking process increases the polymer's resistance to degradation and improves its viscoelastic properties. This material serves as a hydrogel matrix with enhanced water-binding capacity and structural uniformity, making it suitable for formulations requiring precise rheological control. Its defined crosslink density supports applications requiring extended durability and consistent performance under variable conditions.

Crosslinked Sodium Hyaluronate Polymer Applications

Healthcare
- Used as a hydrogel component in injectable formulations to achieve sustained drug release by utilising its enhanced viscosity and network stability.
- Applied as a scaffold in tissue engineering to facilitate cell growth by capitalising on its hydrated, biocompatible structure.

Cosmetics
- Utilised as a moisturising agent in skin care creams to improve hydration by leveraging its high water retention capabilities.
- Implemented as a thickening agent in cosmetic gels to achieve desired texture profiles through its consistent viscoelastic behaviour.

Crosslinked Sodium Hyaluronate Polymer Packing

The polymer is sealed in moisture-barrier packaging with an inner layer of inert plastic to prevent contamination. Products are enclosed in secondary protective cartons with desiccant packs to control humidity. The packaging is designed to maintain the integrity of the powder during shipping and storage. Options for customised labelling and secure containers are available based on specific user requirements to support controlled environments.

Additional Information

Crosslinked Sodium Hyaluronate Polymer belongs to a category of modified biopolymers that combine the natural properties of hyaluronic acid with enhanced structural stability through chemical crosslinking. This modification allows the material to maintain its functional properties under conditions that might otherwise lead to rapid degradation.

In both biomedical and cosmetic formulations, understanding the rheological behaviour of such polymers is crucial. Studies often focus on the balance between crosslink density and hydration properties to optimise the performance of hydrogels, offering insights that are applicable across various fields that require precise control over material properties.