HA13044 Croscarmellose Sodium

Croscarmellose Sodium Description

Croscarmellose Sodium is a chemically modified, cross-linked derivative of carboxymethyl cellulose. It exhibits rapid water uptake and swelling characteristics that facilitate the breakup of composite formulations. Its controlled physical properties enhance the dispersion and disintegration performance in both food and pharmaceutical applications. The material is characterised by a defined particle size distribution and measured purity, directly impacting its functional behaviour in end-use environments.

Croscarmellose Sodium Characteristics

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Croscarmellose Sodium Applications

1.       Food Processing
   - Applied as a dispersant in beverage formulations to achieve uniform mixing by leveraging its high water uptake capacity. This aids in maintaining consistent suspension of particulates for enhanced texture and mouthfeel.

2.       Pharmaceutical Formulations
   - Used as a disintegration agent in tablet formulations to accelerate breakdown upon contact with fluids. The material's rapid swelling facilitates predictable tablet dispersion and improved bioavailability.

Croscarmellose Sodium Packing

The product is packaged in food-grade, moisture-proof multi-layer bags that are placed inside rigid cartons to prevent contamination and physical damage. The packaging protects against ambient moisture and temperature fluctuations, preserving the material's functional properties. Customised packaging options, including bulk, labelled, or compartmentalised packs, are available upon request.

Additional Information

Croscarmellose Sodium is derived from cellulose through chemical modification processes that introduce carboxymethyl groups and induce crosslinking. This modification enhances its ability to absorb water and swell, which is fundamental to its role in disrupting composite formulations. The product finds utility in various sectors, including food and pharmaceuticals, where precise disintegration timing is critical for processing and end-use performance.

The broader context of cellulose modification demonstrates an important intersection between polymer science and practical applications. Advances in synthetic techniques and quality control have enabled the production of materials with predictable and tunable properties, forming a crucial component in formulation science and contributing to improved product performance in diverse applications.