Anhui Liwei Chemical Co., Limited
Products

2-((4-Hydroxyphenyl)Sulphonyl)Phenol


    • Product Name 2-((4-Hydroxyphenyl)Sulphonyl)Phenol
    • Alias BISPHENOL S
    • Einecs 406-950-9
    • Mininmum Order 1 g
    • Factory Site Lingwu, Yinchuan, Ningxia, China
    • Price Inquiry sales2@liwei-chem.com
    • Manufacturer Anhui Liwei Chemical Co., Limited
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    631082

    Iupac Name 2-[(4-hydroxyphenyl)sulfonyl]phenol
    Molecular Formula C12H10O4S
    Molecular Weight 250.27 g/mol
    Cas Number 1546-87-0
    Appearance White to off-white powder
    Melting Point 220-223 °C
    Solubility In Water Slightly soluble
    Structure Type Aromatic sulfone with two phenolic groups

    As an accredited 2-((4-Hydroxyphenyl)Sulphonyl)Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle, 100g, with tamper-evident cap; features chemical name, hazard symbols, batch number, and storage instructions on label.
    Shipping 2-((4-Hydroxyphenyl)Sulphonyl)Phenol is shipped in tightly sealed, chemically resistant containers to prevent moisture and contamination. Packages are labeled according to regulatory requirements, and handled by trained personnel. During transit, the chemical is kept away from incompatible substances and extreme temperatures, ensuring safety and maintaining product integrity throughout the shipping process.
    Storage 2-((4-Hydroxyphenyl)sulphonyl)phenol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of moisture and direct sunlight. Keep away from incompatible substances such as strong oxidizers or bases. Handle using appropriate personal protective equipment to avoid direct contact, inhalation, or ingestion. Store according to local regulations and safety data sheet recommendations.
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    Tel: +8615380400285

    Email: sales2@liwei-chem.com

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    Certification & Compliance
    More Introduction

    2-((4-Hydroxyphenyl)Sulphonyl)Phenol: Experience and Perspective from the Manufacturer

    A Product Built from Years on the Production Floor

    The chemical world is full of specialty compounds, but few deserve their reputation as much as 2-((4-Hydroxyphenyl)Sulphonyl)Phenol does. It’s a product born of careful synthesis and attention at each step, not just a formula to tick boxes but a piece of practical chemistry that reflects what actually matters to downstream users. In this business, hands-on experience goes further than theory. This compound, often referenced by its structure or shorthand, has been part of our daily runs for more than a decade, seeing steady demand across colorant, resin, and polymer sectors. Every batch tells its own version of the story: raw materials sourced with rigor, strict process control, and a final product that gives consistent performance in the real world.

    The Details That Matter in Real Production

    On the technical side, 2-((4-Hydroxyphenyl)Sulphonyl)Phenol carries a purity specification important to formulators. Years ago, customers asked for tighter controls on trace impurities, especially residual metals and unreacted starting material. Process improvements followed. We now routinely guarantee high purity verified by HPLC and NMR analysis, since any deviation quickly shows itself downstream. Color, flow, and dissolution all shift when impurities creep up, so real-world results matter. End users see smoother processing, fewer filter blockages, and more predictable color output.

    From a physical handling perspective, granulation, pourability, and dust content come up again and again. Uniform material reduces loss on transfer, increases yield, and lets people spend more time running the reactor than cleaning hoppers. Our team learned this through years of watching material get weighed, dumped, and reprocessed in customer facilities. We refined our own handling and packaging along those lines. Granules with the right particle size make a difference during weighing and dissolving, especially in automated plants. No haul-off to a waste drum, no shaking stuck powder from the liner. Just pour, mix, and start the batch.

    Where Formulation Meets Application

    Customers who choose this compound know its key traits from the outset. Phenolic and sulfone groups bring a blend of reactivity and thermal stability not always found in similar aromatic compounds. In high-performance polymer resins, this means cleaner incorporation into the backbone, helping meet toughness and clarity targets. Coatings formulators tell us they rely on consistent functional group availability for reliable crosslinking. That means every mole counts, every kilogram matches the previous delivery, and material variability doesn’t creep into final test data.

    Anyone working with specialty dyes or pigments pays special attention to chemical “background noise”. Unwanted color contamination, haze, or off-shade defects tie back to reagent purity, residual salts, or byproducts lingering in the main ingredient. We’ve run into these challenges ourselves. Some suppliers focus on numbers for total content and skip the details on byproduct removal. That comes back to haunt everyone at scale. In our plant, we added final-stage post-treatments and synchronized filtration steps based on real feedback from large-volume users. These tweaks reduced customer complaints and slashed returns.

    Comparing with Look-Alike Compounds

    The chemical market offers several structurally similar products, each with their own twist on reactivity or cost. Some users have asked why not choose a less sulfonated compound, or swap both phenolic sites with something more readily available. Plant operators notice quickly that these lookalike chemicals miss the mark in certain technical applications. For example, compounds with similar molecular weight but without a para-hydroxy group show less activity in polymer matrices. The difference might seem subtle on paper, but engineers see it in product strength and lifetime aging results.

    Cost savings from using generic alternatives can evaporate when stability testing fails. This product’s sulfonyl group also improves solubility under alkaline conditions, helping manufacturers who need quick dissolution and full incorporation. Substitutes often fall short here—pastes stay cloudy, or full reactivity never arrives. We track those differences using direct feedback from end users and re-experience them in-house during lab tests. No amount of catalog comparison can substitute for real trials.

    Sourcing and Sustainability: What Chemical Manufacturing Looks Like on the Ground

    Supply security has become critical over the past few years. Disruptions at global ports, changes in environmental regulations, and shifts in raw material supply chains challenge specialty chemical makers across the globe. For compounds like 2-((4-Hydroxyphenyl)Sulphonyl)Phenol, sourcing quality raw material at steady price and purity keeps production flowing. We’ve spent years identifying alternate suppliers, conducting parallel validation studies, and locking in contract volumes far in advance.

    Sustainability isn’t a buzzword for us. The downstream impact matters—for the environment and our customers’ ESG (Environmental, Social, Governance) responsibilities. Real sustainability shows up in waste reductions, solvent recovery, and investment in safer handling procedures—not just a recycled paper label stapled to the drum. In our facility, we treat every kilogram of process effluent on-site, invest in abatement systems, and collaborate with local authorities to minimize impact.

    We see questions from global clients about the carbon footprint of every batch, traceability of production, and compliance with emerging chemical directives. Our documentation tracks material source, transport method, and in-plant handling back five years. For emerging markets looking to build local supply chains, this background delivers trust and continuity, not just survival for the next audit.

    Safety, Handling, and the Realities of Plant Operations

    Anyone on the plant floor can tell you about the real concerns of handling specialty chemicals—safety isn’t academic. We’ve evaluated every step, from reactor charge to final packing, with worker health first in mind. For example, dust generation is suppressed by granulating the material and minimizing fines—a modification based on staff input and years of fork truck movement studies in our warehouse. Only by listening to operators (and watching forklifts slide on loose powder) did these improvements come about. Protective clothing requirements, air handling upgrades, and updated transfer methods came straight from people working with the material daily.

    Product stability during shipping matters just as much. Laboratory shelf tests revealed that exposure to high humidity or temperature fluctuations could impact bulk flow over time. Logistical partners now keep detailed logs of storage conditions, using fully enclosed containers and humidity indicators on long transit routes. No batch leaves the plant without full pre-shipment checks for moisture content and bulk integrity. End users see this difference immediately—fewer surprises, more reliable reprocessing, and no downtime lost to unexpected clumping.

    Regulatory Alignment and Global Compliance

    Markets are shifting their expectations for chemical transparency. End users in Europe, North America, and Asia all expect full documentation on hazard classification, environmental fate, and toxicological data. Our technical team manages registrations and certifications for each target market, working through evolving frameworks and updating protocols as new data emerges. Experience shows that a small lapse in compliance triggers costly delays—so it’s worth the investment to maintain registration currency, ensure accurate SDS (Safety Data Sheet) content, and provide immediate responses to regulatory auditors.

    We engage directly with our counterparts at customer compliance departments, not just shipping out another packet of data sheets. Regular reviews with legal, technical, and operations specialists confirm every new delivery meets the latest standards, whether REACH in the EU, TSCA in the USA, or equivalent requirements elsewhere. This isn’t abstract—staying close to regulatory conversations informs our process choices, raw material sources, and product modification schedules.

    From Lab Scale to Bulk Shipments: Realities of Commercialization

    Scaling from glassware to tonnage isn’t automatic. Pilot studies in-house, combined with customer feedback from test runs, shape every process change. Years ago, a move to increase reactor throughput by 15% created minor consistency issues in crystallization. Only input from downstream partners pointed out the off-spec color change. Adjustments to cooling rates and filtration immediately improved finished product quality and confirmed the benefit of careful scale-up.

    On multi-ton orders, we maintain lot-to-lot tracking and retain sample reserves for five years. If any customer flags a small change, we can retrieve the lot, check all batch data, and trace every supply step. Repeated feedback drove our current QA controls—not just spot checks but full trend analysis over multiple manufacturing cycles. The final product reflects not only chemistry but the experience of multiple operators, laboratory staff, and logistics coordinators who handle the material at every turn.

    Supporting Partners Beyond the Sale

    Direct relationships with end users shape every production decision. Manufacturing doesn’t stop at the gate, and neither does our responsibility. Several times, formulators running new product lines have called in need of advice during late-stage trials—solubility tweaks, mixing order adjustments, or even re-crystallization options. Our technical team provides real answers, grounded in what works, not just theoretical tables.

    Problems show up after delivery, not just during in-plant production. Take the example of an ink manufacturer encountering filter plugging—our site engineers made multiple visits, walked the process with their crew, and helped re-balance the material-to-solvent ratio. The root cause traced back to an interaction with a minor additive, something that would never trigger a generic process warning. That kind of problem solving comes from deep familiarity with both chemistry and real-world production constraints.

    Why 2-((4-Hydroxyphenyl)Sulphonyl)Phenol Endures in a Rapidly Changing Market

    Markets change, supply routes fluctuate, and new regulations surface every quarter. Only those compounds with a proven record of reliability stay at the center of customer formulations year in, year out. Our experience supporting customers through their product launches, regulatory filings, and technical challenges for 2-((4-Hydroxyphenyl)Sulphonyl)Phenol gives us insight into why certain products hold their ground. Consistent performance, straightforward handling, and milestone-driven improvements blend with a willingness to tackle new customer requirements as they arise.

    We keep learning, both from in-plant failures and customer successes. Working in close contact with downstream users exposes us to new industry developments. The ongoing trend toward higher purity and tighter process control in electronics, increasingly stringent color requirements in plastics, and mounting documentation demands in pharma-adjacent sectors all drive us to review and upgrade our process regularly. Without close communication, no manufacturing operation can adapt with enough speed or accuracy. Honest feedback—both positive and negative—shapes what each new batch looks like.

    Adapting to New Uses and Technologies in Specialty Chemical Production

    Innovation in chemical manufacturing rarely pops out of thin air; it builds on hard-earned lessons and ongoing challenges. The move toward digitalization in production monitoring brought significant changes to our plant. Real-time analytics now keep an eye on reaction end points, impurity profiles, and containment systems. Problems flagged earlier translate into faster course corrections. Customers have asked for tighter controls on trace-level contaminants in their own advanced applications, particularly as electronics and specialty polymers advance. So, we bring in new spectroscopy, upgrade in-line filtration, and invest in staff training to match those evolving targets.

    Many of the next-generation needs focus on sustainability—reducing energy use, recapturing solvents, or even shifting to renewable feedstocks for upstream raw materials. We’ve had to assess alternate syntheses that align with future regulatory landscapes and performance goals, not just short-term cost. That means ongoing trials and long-term partnerships, not one-off deliveries.

    Challenges in the Years Ahead

    Maintaining continuity as a chemical manufacturer means recognizing that the job is never finished. New market entrants, changing regulatory winds, and increasing expectations for product transparency drive the need for constant attention and learning. Specialty compounds like 2-((4-Hydroxyphenyl)Sulphonyl)Phenol need technical reinforcement, not just in the lab, but during full-scale manufacturing, packaging, storage, and transport.

    The community of formulators, plant operators, quality assurance personnel, and logistics coordinators all share a piece of the process. Each challenge—whether it’s an unexpected shift in critical impurity profile, or an environmental audit that sees things from a new angle—pushes us to re-examine long-held assumptions. It’s not always comfortable, but it keeps products like this one improving and relevant.

    What Staying Committed to Quality Looks Like Daily

    Manufacturing experience teaches humility. Every improvement comes from some hitch, feedback, or unexpected process result. Bringing 2-((4-Hydroxyphenyl)Sulphonyl)Phenol from raw materials to a finished product customers trust means everyone along the line plays a role. We take pride in sharing what actually works, listening to those using the product every day, and pushing for improvements that stick. The result is more than a chemical—it’s the outcome of years of technical back-and-forth, trial, and validation in the hands of people who demand the best.