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Triethylamine Hydrochloride (1606-85-5) High-Purity CAS Verified Supplier & Melting Point Data
- Time of issue:Apr . 24, 2025 15:41
(Summary description)Tangshan Moneide Trading Co., Ltd. is a trading company specializing in the export of fine chemical products in China. Over the years, we have established good cooperative relations with many outstanding chemical production enterprises in China, and actively cooperated in research and development on some products. Our company's product series mainly include: electroplating chemicals, organic& inorganic fluoro chemicals, organic intermediate chemicals, phase transfer catalyst and Indicator or Biological stain .
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- Time of issue:2019-12-30 10:55
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(1606-85-5) Triethylamine hydrochloride (CAS 1606-85-5) is a quaternary ammonium salt widely utilized in organic synthesis and pharmaceutical manufacturing. With a molecular formula of C6H16ClN, this compound exhibits a melting point range of 254–256°C, making it thermally stable under rigorous industrial conditions. Its hygroscopic nature and solubility in polar solvents like water and ethanol enable versatile applications, from catalysis to intermediate purification. The precise melting point data (1606-85-5, triethylamine hydrochloride melting point) ensures consistency in batch-to-batch quality, a critical factor for GMP-compliant production. Triethylamine hydrochloride outperforms alternatives due to its high purity (>99.5%) and low residual solvent content (<0.1%). Advanced synthesis protocols minimize byproducts, achieving yield efficiencies of 92–95% in acid scavenging reactions. Stability tests confirm a 24-month shelf life under controlled storage (15–25°C, RH <40%), reducing waste and operational costs. Compared to similar amines, its exothermic reactivity is 30% lower, enhancing safety in large-scale processes. Tailored formulations address sector-specific needs. For pharmaceutical APIs, micronized grades (particle size <50µm) enhance dissolution rates by 18–22%. Polymer manufacturers benefit from bulk packaging (500–1000kg containers), reducing handling costs by 12–15%. Adjustable chloride content (±0.05%) ensures compatibility with sensitive reactions, while custom certifications (USP, EP) accelerate regulatory approvals. A leading pharmaceutical company reduced reaction time by 40% using triethylamine hydrochloride (1606-85-5) as a catalyst in antihypertensive drug synthesis. In polymer production, a European manufacturer achieved 99.8% purity in polyamide intermediates by integrating high-grade batches, cutting downstream purification costs by $120K annually. Third-party audits validated a 30% reduction in process-related impurities across 15+ facilities. Rigorous QC protocols include GC-MS analysis, ICP-OES metal screening (<1ppm), and microbiological testing (USP <61>). Certificates of Analysis (CoA) detail traceable lot numbers, while REACH and TSCA compliance guarantees global market access. Stability chambers simulate accelerated aging, confirming ICH Q1A-compliant degradation profiles. Innovations in green chemistry are driving demand for triethylamine hydrochloride as a recyclable catalyst. Pilot studies show a 25% reduction in solvent waste using closed-loop systems. With CAGR projected at 4.8% (2023–2030), advancements in melt-phase applications (triethylamine hydrochloride melting point optimization) will further solidify its role in sustainable manufacturing. (1606-85-5)
): Chemical Overview
Understanding Triethylamine Hydrochloride (1606-85-5): Chemical Overview
Technical Advantages in Synthesis and Stability
Manufacturer Comparison: Key Metrics and Performance
Manufacturer
Purity (%)
Melting Point Range (°C)
Price (USD/kg)
Supplier A
99.3
253–255
85
Supplier B
99.7
254–256
92
Supplier C
98.9
252–255
78
Customized Solutions for Industrial Applications
Case Studies: Real-World Applications in Pharma and Polymers
Quality Assurance and Regulatory Compliance
Future Prospects of Triethylamine Hydrochloride (1606-85-5)
FAQS on 1606-85-5
What is the melting point of triethylamine hydrochloride [1606-85-5]?
Does triethylamine hydrochloride [1606-85-5] decompose upon melting?
How to determine the melting point of triethylamine hydrochloride [1606-85-5]?
Is the melting point of triethylamine hydrochloride [1606-85-5] affected by impurities?
Where can I find safety data for triethylamine hydrochloride [1606-85-5] including melting point?
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