HA10648 Disodium EDTA Powder

Disodium EDTA Powder Description

Disodium EDTA Powder (C10H14N2Na2O8) functions as a chelating agent that forms complexes with metal ions, mitigating interference in chemical reactions. Its powder form ensures ease of mixing and a consistent particle size distribution. The product features defined complexation capacity and low variability in purity, making it effective in processes such as water treatment and formulation stabilisation. Its controlled composition benefits users by reducing metal-induced discrepancies in sensitive systems.

Disodium EDTA Powder Applications

1.       Industrial Applications
   - Used as a chelating agent in water treatment systems to reduce metal ion interference, leveraging its complexation properties to maintain process stability.
   - Applied as a component in cleaning formulations for industrial equipment to minimise scale formation by binding residual metal ions.

2.       Healthcare Applications
   - Employed in pharmaceutical formulations to sequester trace metals, helping to prevent degradation or discolouration by leveraging its metal-binding efficiency.
   - Used in diagnostic reagent preparation to control metal ion concentration, enhancing the accuracy of analytical measurements.

Disodium EDTA Powder Packing

Disodium EDTA Powder is packaged in moisture-resistant, multi-layered bags placed within recyclable fibreboard boxes. The packaging incorporates anti-contamination seals and is designed to maintain a dry environment. Storage in a cool, low-humidity area is recommended to ensure the material remains stable. Custom packaging options, including bulk packaging and specialised labelling, are available to accommodate specific storage and handling requirements.

Additional Information

Chelating agents like Disodium EDTA play a critical role in controlling metal ion concentrations within formulations, thereby preventing adverse reactions. In material science and industrial chemistry, precise control over such variables is essential for maintaining consistency and performance. Researchers continue to explore improvements in synthesis and processing techniques to enhance the material's efficacy in complex applications.

Understanding the broader context of chelation chemistry offers insights into its multifaceted roles across industrial, healthcare, and environmental systems. Advances in analytical methods further support the development and optimisation of chelating agents for specific applications, providing a pathway for improved operational outcomes.