Antimony (III) Sodium Gluconate: Material Profile and Properties

What is Antimony (III) Sodium Gluconate?

Antimony (III) sodium gluconate brings together antimony, one of those metallic elements with a long history in industry, and gluconate, a derivative of gluconic acid, blending stability and water-solubility. Sitting under the category of antimony compounds, this material appears in pharmaceutical applications and, sometimes, in niche chemical syntheses. Over the years, people have mined, purified, and experimented with antimony across medicine and manufacturing lines, always seeking reliable performance through careful handling of raw materials.

Products and Forms

This compound comes in different physical states—solid powder, pearly granules, flakes, and sometimes in clear liquid solutions for specific roles. Seen up close, the powdered form feels slightly gritty, with a pale white shade and crystalline appearance. Each form supports particular processing needs, whether someone wants rapid dispersion in water or needs slow, measured release of antimony ions. Experienced handlers notice that the flakes and pearls offer less dust, cutting down skin or inhalation contact. Glass reagent bottles and plastic tubs store these solids in labs, each labeled tightly for health and consistency reasons.

Chemical Structure, Molecular Profile, and Properties

The molecule stacks sodium, antimony in a +3 oxidation state, and gluconic acid’s backbone, pulling in both ionic and covalent bonds. Chemists use this structural arrangement to give the compound both water solubility and antimony delivery. The molecular formula, C12H22O14SbNa, closely matters in dosing, hazardous label classification, and chemical synthesis. Its molar mass hovers around 527.1 g/mol. On a shelf, the solid maintains stability at room temperature and modest humidity, resisting quick oxidation or color change.

Density and Physical Data

With a density averaging 1.8-2.0 g/cm³, antimony (III) sodium gluconate weighs reasonably heavy for a white solid. Handling a liter of solution or a bag of pearls signals care about dust escape and measuring accuracy. In crystalline form, it refracts light subtly; under the microscope, the granules show off clear facets. For laboratories running quality control or research, density checks anchor everything from solution blending to packaging in drums or liter bottles.

HS Code, Raw Materials, and Industrial Relevance

On the international supply chain, antimony (III) sodium gluconate picks up an HS Code typically in the 2918 or 3822 family, aligning with organic or pharmaceutical preparations. Every shipment and customs move tracks this number for compliance and hazard management. Source material begins with antimony trioxide and sodium gluconate; chemical engineers combine these in defined ratios, pushing for high purity and narrow contaminant ranges. Vigilant suppliers monitor trace metals and residual acids to ensure finished raw materials are up to pharmaceutical or industrial standards.

Safety, Hazards, and Handling

Working with antimony (III) sodium gluconate demands respect. Literature and decades of lab work point to potential hazards: harmful dust, toxicity if ingested or exposed over long periods, and skin or respiratory irritation. Workers put on protective gloves, dust masks, and lab coats before measuring or amping up production batches. Material Safety Data Sheets (MSDS) warn about maintaining proper air boundaries, storing away from acids and moisture, and clean workspace practices. Chemical spills draw sweat, as floors grow slick and powder rolls under benches. Eye protection and emergency showers stay on hand during manufacturing and reconstitution. Disposal routes head to controlled chemical waste, as antimony carries environmental and bioaccumulation risks if poured down drains or into trash bins.

Importance and Challenges

With antimony (III) sodium gluconate showing value in treating parasitic diseases or as a reagent, reliability matters as much as any property. Pharmaceutical researchers count on known density and solubility to hit target concentrations. Sourcing scrupulously tested batches keeps therapies as safe as possible, even as impurities stay low. Practical knowledge about how powders flow, how quickly flakes dissolve, or if solutions hold clarity impacts both daily use and patient health. Challenges include managing safe access, minimizing worker harm, and meeting strict environmental controls.

Practical Solutions and Best Practices

Chemists and logistics staff rely on factors like molecular weight, density checks, and crystal form to steer handling and blending. Suppliers pre-weigh raw material and offer sealed packaging, shrinking risk of accidental exposure. This attention reaches down to labeling, hazard statement visibility, and transport—nobody wants mislabeled antimony reaching the wrong industry. Health facilities, meanwhile, double-check identity and density before any dosing. Environmental staff review protocols for safe washing, spill management, or even neutralization. Close teamwork between producers, importers, and end-users means few surprises in the warehouse or clinic, and public health stays up front in every step from raw mineral to formulated solution or crystal.