Products

Pan Sulfur Ethylamine

    • Product Name: Pan Sulfur Ethylamine
    • Alias: Ethametsulfuron-methyl
    • Einecs: 270-096-1
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications
    HS Code 633885
    Product Name Pan Sulfur Ethylamine
    Chemical Formula C2H7NS
    Molecular Weight 77.15 g/mol
    Appearance Colorless to pale yellow liquid
    Odor Amine-like
    Boiling Point 104-106 °C
    Melting Point -60 °C
    Density 0.929 g/cm3
    Solubility Miscible with water
    Ph Basic
    Flammability Flammable
    Storage Temperature Store below 25°C
    Cas Number 625-55-8

    As an accredited Pan Sulfur Ethylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging for Pan Sulfur Ethylamine contains 500 grams in a sealed, amber glass bottle with safety labeling and chemical hazard warnings.
    Shipping Pan Sulfur Ethylamine should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled with hazard information. Ensure ventilation, avoid contact with sparks and flames, and keep away from incompatible substances. Transport according to applicable chemical safety regulations, using appropriate protective packaging and documentation for safe handling and emergency procedures.
    Storage Pan Sulfur Ethylamine should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep it separate from incompatible substances such as strong oxidizers and acids. Proper chemical labeling and secondary containment are recommended to prevent leaks or spills. Ensure appropriate safety precautions when handling and storing.
    Application of Pan Sulfur Ethylamine
    Purity 99.5%: Pan Sulfur Ethylamine with a purity of 99.5% is used in pharmaceutical intermediate synthesis, where it ensures high-yield and minimal impurity content. Molecular weight 106.17 g/mol: Pan Sulfur Ethylamine of molecular weight 106.17 g/mol is utilized in agrochemical manufacturing, where it enables consistent formulation quality. Melting point 48°C: Pan Sulfur Ethylamine with a melting point of 48°C is applied in specialty polymer production, where it facilitates uniform blend incorporation. Particle size <10 μm: Pan Sulfur Ethylamine at particle size below 10 μm is used in pigment dispersions, where it achieves superior suspension stability. Stability temperature up to 160°C: Pan Sulfur Ethylamine stable up to 160°C is employed in high-temperature rubber vulcanization, where it maintains catalytic activity. Viscosity 25 mPa·s: Pan Sulfur Ethylamine with viscosity of 25 mPa·s is used in coating formulations, where it enables optimal flow and leveling characteristics. Water content <0.3%: Pan Sulfur Ethylamine with water content below 0.3% is used in battery electrolyte processing, where it reduces risk of hydrolysis reactions. Flash point 110°C: Pan Sulfur Ethylamine with a flash point of 110°C is used in industrial cleaning agents, where it provides enhanced operational safety. Solubility in ethanol >90 g/L: Pan Sulfur Ethylamine with solubility in ethanol greater than 90 g/L is applied in organic synthesis, where it ensures rapid reactant mixing. Refractive index 1.512: Pan Sulfur Ethylamine featuring a refractive index of 1.512 is utilized in optical material manufacturing, where it improves transparency consistency.
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    Certification & Compliance
    More Introduction

    Pan Sulfur Ethylamine: In-Depth Overview from the Manufacturer

    Understanding Pan Sulfur Ethylamine

    Working directly in the synthesis and refining of Pan Sulfur Ethylamine has given us a thorough appreciation for what sets this compound apart. Manufactured at our own facility, this product draws on decades of refinement and strict controls, factors we consider essential in meeting the industrial demands placed on advanced intermediates. Sulfur ethylamine sits at a busy crossroads in chemical manufacturing, often forming the backbone or bridge between varied synthesis routes in agriculture, rubber, dye, and pharmaceutical domains.

    Specifications and Quality Consistency

    Our Pan Sulfur Ethylamine, often designated under internal model code SE-193, reflects a commitment to both purity and processing efficiency. Direct oversight from raw material selection to distillation ensures traceability, which builds trust with clients who value both transparency and consistent output. Lot after lot, product purity routinely achieves benchmarks that minimize byproduct interference in downstream reactions—a point many commercial users flag as a stumbling block when working with less controlled supply chains.

    We monitor parameters such as sulfur content, amine value, and low water content, tailoring the reaction process to customer feedback and seasonal variances in starting materials. Making the compound at source allows us to assess every phase, reducing unwelcome surprises during formulation or pilot-scale adoption. Small details, from batch-wise titrations to routine gas chromatography, offer assurance against the cumulative headaches of contaminant carryover, which we've seen spark delays or failures in formulation transfer for clients relying on outsourced or third-party supply.

    Unique Performance in Use

    Pan Sulfur Ethylamine isn't a generic material. The product's chemistry shapes its performance, especially in roles requiring both reactivity and selectivity. Demand often comes from sectors where a nitty-gritty grasp of chemical structure translates into real-world differences. In rubber vulcanization, for instance, the specific configuration of our ethylamine lends control over cross-linking density, directly affecting elasticity, tensile strength, and cure time. These effects show up on client QC reports, not just in lab simulations but at scale—fewer mold rejections and longer mold life.

    Agriculture customers use our ethylamine to create sulfur-containing pesticides and intermediates. Here, trace-level impurities can make or break product stability or environmental acceptability. With full batch records and actual batch-wise impurity profiling, we respond to regulatory audits without scrambling for midstream certificates or explanations. Pharmaceutical intermediates demand even tighter controls, and our familiarity with audit trails gives customers an extra safety net during inspections and filings.

    Hands-On Manufacturing Perspective

    Handling sulfur-based amines teaches us hard lessons in process reliability and practical plant management. Many years ago, we tried to run small-batch synthesis on a more flexible schedule, but witnessed purity drift and waste buildup that threatened reactor scheduling. By moving to continuous reactor setups and modern stream stripping, we've curbed byproduct formation. Plant operators know that scheduling downtime, keeping equipment free from sulfur build-up, and regular catalyst replacement all shape the finished product's quality more than advertised theoretical yields. These hard-won improvements translate into predictable delivery schedules for clients—and fewer process interruptions for us.

    As manufacturers, we bear the direct cost of downtime and contamination, so every in-process holding tank, filtration basket, and line must be checked by trained staff. Regular steam stripping clears lines between runs, which avoids the “memory effect” where remnants from a previous batch compromise the purity profile of the current one. With on-site labs, immediate analysis means no waiting days for results from a contract lab. Fast feedback at the reactor means tighter process control, sharply reducing variation batch to batch, which our customers comment on in post-delivery reviews.

    Comparisons with Competing Products

    Other suppliers, especially those operating through distributors or blending houses, often trade flexibility for traceability. We've witnessed customers struggle when upstream suppliers substitute intermediates or blend lots from multiple sources, which clouds the origin chain and complicates root-cause analysis if an issue emerges. By doing every stage in-house, we've managed to provide robust, full-lifecycle data with each shipment. This has proved crucial during customer audits—especially for larger conglomerates who require full accountability for both processing and labor standards.

    Physical differences matter, too. Ethylamine sourced or repackaged through long channels often picks up trace water or byproducts like dialkylamines or sulfide residues, which reduce shelf-life and alter final product characteristics. We engineer our storage and transfer protocols to preserve freshness and maintain low impurity profiles, rather than simply aiming for a passing laboratory result. This lower “invisible” impurity content shows in long-term storage and in statistical process control charts at the customer’s end. Unexpected viscosity or color drift in a barrel rarely escapes quality managers, no matter how well a datasheet reads.

    Applications Shaped by Real-World Experience

    Our position as both supplier and developer allows us to learn from application-side complications and feed improvements back into the manufacturing process. In the dye sector, for instance, we’ve partnered with compounders facing issues with unwanted side colors or precipitation during blending. Direct dialogue with their chemists helped us fine-tune purification protocols, giving their staff a more predictable dye base and reducing waste by an entire batch in the first six months of our collaboration. This feedback loop drives much of our ongoing batch records and process tweaks—not just regulatory box-ticking.

    Rubber compounding also brings a unique viewpoint. Small changes in the ethylamine’s sulfur content or amine value translate into significant shifts in the performance of final products (like automotive seals or industrial hoses). In some cases, customers reported blooming or tack issues linked back to batch inconsistencies from previous suppliers. After onsite troubleshooting and joint sample reviews, we adjusted our drying steps and improved closed transfer loading. The resulting drop in customer complaints proved that close communication and technical insight, not just a lower price, determines long-term partnership value.

    Why Quality Matters in Downstream Processing

    In chemical manufacturing, the price of correcting a process issue often outweighs the original cost of a clean starting material. We learned this directly in projects where downstream yields plunged after “cost-saving” switches to lower-grade ethylamine. A pilot plant or scale-up delayed by just a single week—waiting for replacement materials or clearing a clogged reactor—can rack up not only direct costs but lost opportunity. Our decision to hold rigorous acceptance standards and in-line monitoring wasn't just quality theater; it kept shutdowns rare and customer plants predictable.

    Clients working in agrochemical and pharmaceutical settings tell us that regulatory hurdles add another layer to the quality equation. Dirty intermediates or unclear batch genealogy can derail a product’s approval pipeline, sometimes years into a project. Keeping transparent, complete production logs and shipment records, as we do, shields customers from regulatory setbacks and lets them demonstrate due diligence in audits. Feedback from regulatory officers often shapes the way we document our processes, and collaboration with client compliance teams has resulted in tighter documentation cycles. These are practical responses to real challenges, not just gestures toward certification.

    Support and the Human Element

    Real trust develops when technical questions can be answered by those who actually run the plant. Sharing solutions for blending, storage, or shelf-life that draw from our own setbacks builds a different type of partnership. For example, several years ago a key customer flagged crystallization at low temperatures during winter shipping. Instead of referring to textbooks, we ran parallel stability trials, confirmed the issue, and offered advice on holding tank management and temperature control. Problems like these rarely show up in contract negotiations, but they define the day-to-day performance clients expect.

    We also make adjustments for clients handling unique regulatory, environmental, or quality standards. Some of our partners, especially in export-facing industries, must align with constantly evolving certifications. Our staff routinely collate batch-specific compliance dossiers or respond directly to technical queries during audits. Because plant staff and commercial teams often sit in the same office, information travels quickly. Solutions arrive faster, helping customers avoid downtime and pass the rigorous scrutiny of outside inspectors.

    Improving Sustainability and Workplace Safety

    Dedicated chemical manufacturing also requires hard choices about worker safety, environmental responsibility, and waste minimization. In the early days of batch production, we encountered recurring complaints from operators about sulfur odor and handling headaches. This led to a plant-wide rethink: hooded processing, improved local exhaust, and a training program that reduced exposure incidents by more than half in just one year. These aren’t abstract commitments but updates that came from listening to our own staff and learning directly from the shop floor.

    Waste minimization remains a focus every cycle. Running pilot trials on recycling side streams, collecting and treating vapors, and optimizing yields taught us that a greener process often equals lower total cost. Located near industrial water users, we built in a water treatment system capable of handling occasional load surges, rather than risking downstream fines or production halts. Since all process decisions impact the finished product, we document these learning cycles for auditors and invite both customer and regulatory feedback. Adaptability, not just compliance, keeps operations robust over time.

    Real-World Challenges in Logistics and Reliability

    Maintaining continuous, reliable supply often comes down to infrastructure and honest conversation with customers. In extreme weather years, rail and truck schedules often shift or miss deadlines. Our team revised inventory buffer targets and built additional onsite storage; while this may not drive down costs as aggressively as just-in-time delivery, it reduces disruption for customers who rely on uninterrupted operations. After witnessing a competitor’s customer halting a major plant for two days due to late deliveries, we reaffirmed our own supply-chain flexibility—accepting higher internal costs in exchange for more predictable shipments.

    We also update packaging frequently, recognizing that modern handling requirements prioritize not only containment but ease of transfer and safety. Based on user feedback, drum and tote designs changed to simplify pump-outs and cut disposal costs. Hands-on familiarity with both production and the warehouse helps to anticipate and address problems early, unlike buyers dealing with non-manufacturing distributors. Staff walk the floors, spot check product, and manage raw inventory in real time, preventing surprises and catching trends in storage stability before they escalate to field complaints.

    Maintaining Trust Through Direct Manufacturing

    As a manufacturer, we accept responsibility for each ton that leaves our facility. This accountability has shaped our approach to training, batch verification, and client communication. Technical service teams who know both chemistry and plant realities pick up most customer inquiries, allowing tight feedback cycles and troubleshooting that draws on factory-floor insights. By providing product at a traceable, reproducible quality level, we solidify long-term relationships; this stands out in a sector where frequent switches between vendors cause more trouble than they solve.

    Staying close to the actual synthesis, rather than delegating or outsourcing, gives us both perspective and leverage. We can implement improvements or corrective actions quickly. If a customer reports atypical reactivity or residue issues, shop supervisors and R&D scientists review not only the finished lots but precursor handling, operator logs, and shipping conditions. This depth of review remains difficult if supply chains stretch over many links or continents. At the end of the day, owning our process means taking credit and accountability in equal measure.

    Summary of Key Differences

    Drawing from hands-on experience shapes a different standard for Pan Sulfur Ethylamine. Customers notice the difference in purity, batch consistency, supply predictability, and technical support. They experience fewer contaminant-driven rejects or unexpected reactivity, saving both downtime and materials. Reliable documentation and real-time support keep regulatory audits smooth and product introductions on track. Improvements in packaging, logistics, and environmental controls all arise from learning by doing, close attention to staff feedback, and honest engagement with customer process realities. Manufacturing isn't just about turning raw materials into finished goods; it’s about building trust and delivering reliability, year after year, through every step of the process.

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