Tetradecylpyridinium Chloride: Key Physical and Chemical Details

What is Tetradecylpyridinium Chloride?

Tetradecylpyridinium Chloride stands out as a quaternary ammonium compound with wide appeal in personal care, pharmaceutical, and industrial applications. In day-to-day use, it turns up most often where teams look for robust antibacterial or surfactant functions. The compound, recognized by its molecular formula C19H34ClN and CAS number 140-33-0, offers significant benefits through surface activity and microbial control. Its sturdy bactericidal and fungicidal properties support efforts to maintain product hygiene in both healthcare and consumer goods sectors. The chemical appears under the HS Code 2921.42, signifying its formal classification among organic chemical raw materials.

Physical Form, Structure, and Appearance

Tetradecylpyridinium Chloride provides manufacturers with several physical forms, including fine powder, flakes, solid pellets, pearls, or even as a clear, colorless to pale-yellow liquid solution. Its crystalline structure, visible under the right lighting, offers clues about purity, handling, and application. Typical density measures hover around 0.98 g/cm³ for solid forms, but solution density varies with concentration and temperature. Some batches yield airy flakes, making measurements straightforward for production. While it dissolves easily in water and ethanol, the resulting solution displays a neutral to mildly alkaline pH, pointing to most uses in formulations where foam or microbial knockdown is needed. The solid or flake material stores best in tightly sealed containers to fend off clumping or absorption of moisture from the air.

Chemical Properties, Performance, and Safety

Teams looking for performance in both biocidal and surfactant roles lean into Tetradecylpyridinium Chloride’s cationic surface-active characteristic. Its strong affinity for negatively charged cell membranes allows for significant antimicrobial effect, including against gram-positive and gram-negative bacteria. In a raw material state, high purity helps delivery of stable solutions, extending shelf life for final products. Its chemical stability holds under neutral and slightly alkaline conditions but loses effectiveness in strong acids or oxidizing environments. Storage away from heat sources, acids, and oxidizers helps maintain its quality. Handling in facilities—especially powdered or flake forms—calls for gloves and goggles. Inhaling dust or exposing unprotected skin can trigger irritation, and accidental ingestion brings harmful effects, so following local chemical safety guidelines is not optional. Keeping accurate hazard communication, including GHS labeling, ensures teams recognize its hazardous and harmful properties early in the process.

Industrial Use, Specifications, and Raw Material Sourcing

In personal experience, the versatility of Tetradecylpyridinium Chloride shows up across oral rinses, surface disinfectants, and even specialty coatings. In the oral care world, it brings much-needed antibacterial punch in mouthwashes without overwhelming flavor. Agriculture and food processing sectors call on this compound to keep surfaces free of pathogens—often in diluted solution by the liter for routine sanitation. Technical specifications demanded by industry buyers often include a minimum purity of 98%, moisture content under 2%, and a bulk density matched to filling machines and transportation requirements. Reliable sourcing starts with raw material vendors who document both compliance and trace metal content, since users in pharmaceuticals set tight controls for ingredient quality. Specific lot analyses ensure that delivered material meets defined standards for not only physical appearance but also the key chemical activity so that no batch falls short in field application.

Environmental and Health Impact, Possible Alternatives

Conversations about safety bring up the potential for environmental persistence and toxicity. Tetradecylpyridinium Chloride, like other quaternary ammonium compounds, resists breakdown in wastewater treatment plants, and high levels pose risks for aquatic life. Monitoring discharge levels and adopting closed-loop recovery in manufacturing keep emissions in check. Industry moves toward greener formulations sometimes push for partial substitution with less persistent chemicals where possible, but technical performance often pushes back against generic swaps. Any company using this raw material needs to commit to robust hazard training, regular air monitoring for dust, and clear process documentation. For waste, skilled teams use secure disposal options that comply with regional hazardous chemical disposal laws, cutting down on off-site impacts.

Practical Realities for Use and Handling

Years of experience in the chemical supply chain prove that clear labeling, tight quality documentation, and a steady supply chain for Tetradecylpyridinium Chloride keep both workers and communities safe. Industry users look for reliable logistics partners to prevent cross-contamination and guarantee timely deliveries, especially where seasonal demand for sanitizers or surface treatments runs high. Storage environments steer clear of moisture and direct light, supporting stable, high-purity stocks on-site throughout the year. Effective in-house training on PPE and quick spill response limits risk and environmental liability. Documentation teams keep Safety Data Sheets close at hand, ensuring transparent communication up and down the supply chain. Looking forward, ongoing research in formulation chemistry and process engineering may cut reliance where possible, while still capturing the antimicrobial value that Tetradecylpyridinium Chloride brings to many essential products.