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HS Code |
638339 |
| Cas Number | 98-48-6 |
| Molecular Formula | C6H5NO4S |
| Molecular Weight | 187.18 g/mol |
| Appearance | Light yellow crystalline solid |
| Melting Point | 145-149°C |
| Solubility In Water | Slightly soluble |
| Density | 1.53 g/cm³ |
| Purity | Typically ≥98% |
| Smiles | O=[N+]([O-])C1=CC=CC=C1S(=O)(=O) |
| Inchi | InChI=1S/C6H5NO4S/c8-7(9)5-2-1-3-6(4-5)12(10,11)13/h1-4H |
| Storage Temperature | Room temperature, dry conditions |
| Synonyms | m-Nitrophenyl sulfone |
As an accredited 3-Nitrophenyl Sulphone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 3-Nitrophenyl Sulphone; features tamper-evident cap and detailed hazard labeling for safety. |
| Shipping | 3-Nitrophenyl Sulphone is shipped in tightly sealed containers, away from direct sunlight, heat, and incompatible materials. It is packed to prevent leaks or spills, with appropriate hazard labeling as per chemical safety regulations. Shipping complies with relevant transportation guidelines for hazardous chemicals to ensure safe and secure delivery. |
| Storage | 3-Nitrophenyl Sulphone should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing or reducing agents. Protect from moisture, direct sunlight, and sources of ignition. Ensure proper labeling, and keep the storage area equipped with appropriate spill control and ventilation equipment. Handle using standard laboratory precautions. |
Applications of 3-Nitrophenyl Sulphone in Industrial Manufacturing3-Nitrophenyl Sulphone supports key synthesis and modification processes across intermediate and advanced material industries. As a direct manufacturer, we see consistent industrial demand from sectors prioritizing high purity, regulatory alignment, and proven functional outcomes. Below, we detail specific production scenarios where our material integrates into customer operations. 1. High-Performance Polymer IntermediatesManufacturers employ 3-Nitrophenyl Sulphone during engineered polymer systems development, particularly for producing sulfonated poly(ether sulfone)s and related high-temperature plastics. It functions as a sulfonation agent and reactive aromatic component, directly involved in step-growth polymerization reactions. Precision control of input ratios and reaction conditions ensures mechanical, electrical, and thermal property targets for downstream molders and compounders. End users in electronics housings, aerospace components, and advanced filtration select these polymers to meet high stress and severe environment requirements. Industry compliance standards
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2. Pharmaceutical Intermediate SynthesisPharmaceutical producers utilize 3-Nitrophenyl Sulphone for advanced intermediate building block assembly. The strong electron-withdrawing sulfone and nitro substituents facilitate selective aromatic substitution, cross-coupling, and reduction steps in multi-stage syntheses. Pharmacopeial quality and impurity control allow these intermediates to support active pharmaceutical ingredient (API) precursor batches. Downstream synthesis routes often apply hydrogenation, bromination, or amination directly following this building block’s integration. Industry compliance standards
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3. Dyes and Pigments IntermediatesSpecialty dye and pigment manufacturers rely on 3-Nitrophenyl Sulphone to synthesize advanced chromophore intermediates. Its nitro functionality supports electrophilic aromatic substitution and subsequent reduction to amine stages, enabling formulation of azo, anthraquinone, and sulfur dye scaffolds. Quality consistency and trace metals content suppression remain essential for achieving stable tinting strength and batch-to-batch reproducibility in final dispersions and concentrates for textile or plastic coloration. Industry compliance standards
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4. Specialty Agrochemical SynthesisLeading agrochemical formulators utilize 3-Nitrophenyl Sulphone when preparing specialty sulfonylurea herbicides and sulfone-based fungicide active ingredients. Its electron-deficient structure supports selective nucleophilic substitution reactions, crucial for assembling heterocyclic ring systems with high bioactivity. Strict quality surveillance ensures absence of reactive or residual impurities that could affect field stability or regulatory registration. This starting material often feeds chlorosulfonation or sulfonamide coupling steps in process lines. Industry compliance standards
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5. Electronic Chemicals for Photoresist and Etching CompoundsFabricators of semiconductor materials incorporate 3-Nitrophenyl Sulphone into synthesis routines for key electron-accepting intermediates used in photoresist developers and advanced etchants. The high purity level maintained during our production allows minimized ionic contamination, critical for photolithography environments. These derivatives help tune UV absorption and enhance process margin during layer patterning for high-density integrated circuits and display panels. Industry compliance standards
Typical usage ratio
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Direct manufacturing of 3-Nitrophenyl Sulphone over the years has shaped our perspective on what the chemical industry truly needs from specialty sulphones. There are always new applications emerging from research labs and production lines, and our experience handling this compound daily puts us in a strong position to cut through the jargon. The demand isn’t simply for purity. Chemists want clear analytical data, good batch repeatability, low-risk impurities, and dependable delivery every time. In production, the smallest contaminant can ruin a multi-kilo scale-up, so there’s no room for guesswork. That’s why our team works closely at each stage: starting from raw material traceability, controlling pressure and temperature in the reactor, right up through the purification process and post-synthesis handling.
3-Nitrophenyl Sulphone—structurally known as 1-sulfonyl-3-nitrobenzene—attracts attention for its ability to act as both an intermediate and a fine chemical in diverse synthesis pathways. You will find our material used in research and as a component in pharmaceutical intermediates, dyestuffs, specialty polymers, and advanced materials development. Years of manufacturing this compound gives us the insight to know which grades work best for which process, and how even a small shift in impurity profile can cascade through the rest of your project.
Typical production arrives crystalline, off-white to pale yellow, depending on storage and exposure. Melting point checks fall in line batch after batch, so researchers and scale-up chemists don’t spend their day recalibrating expectations. We run HPLC analysis with specific focus on nitro- and sulfonyl-related by-products because even trace side-reactivity influences yield or complicates downstream purification. Laboratory teams rely on us for proof of composition, and we back it up with batch-to-batch chromatograms—no surprises, and nothing swept under the rug.
Chemists who order directly from a manufacturer know reproducibility means more than just a promised spec sheet. High-performance synthesis routines depend on both tight melting point windows and minimal residual solvents or inorganic ash. With 3-Nitrophenyl Sulphone, sensitivity to thermal and mechanical stress can cause purity drift if not contained from the start. Too many labs have run up against supply where the actual sample doesn’t match the label; our technical team catches these issues before material leaves the plant. Samples are drawn from every campaign, not just the first or the last kilo. Trained chemists check not only melting point, but color, bulk density, and the full impurity profile, so inbound QC at the customer site goes fast.
Working in the plant environment, we have seen how scaling up reactions from bench to pilot plant reveals new variables—reaction exothermicity, agitation speeds, pH drift at larger volume, even small changes in solvent grade. These are the variables that can trip a synthesis if overlooked. Our process engineers map out the differences between development and production scale, adjust residence times, monitor headspace for contamination, and ensure that solid separation steps don’t introduce iron or silica contamination from worn plant equipment. The goal is consistency, so the customer gets what they expect with each delivery.
Downstream applications drive almost every change in our workflow for 3-Nitrophenyl Sulphone. Pharmaceutical synthesis and performance coatings both demand purity, but not always for the same reasons. A subtle impurity that passes unnoticed in a colorant synthesis could destroy a pharmaceutical pathway by blocking catalytic hydrogenation. We listen to project chemists telling us where things go wrong: isomers from impure starting nitrophenols, trace sulfonic acids, or even packaging residues from bulk shipment. Each of these factors has caused projects to stall for our customers at one point or another. Real manufacturing directs attention to the source—ensuring upstream contaminants stay out of the finished goods.
Batch traceability means more than a batch code. Each flask, drum, or bag is linked to the precise batch in our records, with results from every QC parameter attached. Any deviation traced or trend identified brings a swift root cause investigation. Only a manufacturer with direct oversight can actually present this kind of documentation, since we control both the recipe and the physical production line.
We’ve compared third-party and common catalog samples against our own runs dozens of times. Sometimes the differences are invisible to casual inspection; the melting point matches, color stays within range, but careful analysis shows a broader spread of minor peaks on chromatograms or a faint, persistent odor from mono-nitrosulphonation. Even a few tenths of a percent of an undesirable by-product makes scale reactions unpredictable—wasting weeks in troubleshooting. Our process improvement teams track these shifts closely, so deviations stay out of production. In the event a customer project calls for a specified impurity below quantitation, we work upstream to select raw materials by supplier track record, boosting purity from the ground up.
Direct handling of the product also lets us shape specification to fit customer need. If a formulary needs finer particle size or stricter moisture limits for automatic powder dosing, we adapt drying and grinding in-plant. A batch destined for use in electronic intermediates may run under inert atmosphere and ship double-bagged, so product safety isn’t compromised. We manage these adjustments ourselves; resellers rarely have the leverage to update processing at the plant level or guarantee real change to the formula. The difference is tangible: less downstream rework, fewer surprise findings on incoming inspection, and more flexibility for projects that demand custom solutions.
3-Nitrophenyl Sulphone presents some unique storage and shipping considerations that we’ve worked through over the years. Dry, ventilated storage prevents agglomeration, but temperature swings and humidity can cause caking or color change if not protected. We pack only into hard drums lined with antistatic liners, preventing static buildup and minimizing dust exposure for warehouse staff. Clear labeling on every container keeps confusion out of inventory management—and we never reuse bags to cut costs. These small details protect product integrity and simplify safe handling downstream.
Transport regulations for this substance depend on batch size and customer location. We keep close track of regulatory changes, both at origin and destination, to minimize transit risk and avoid last-minute holdups in customs. Years of direct shipping experience taught us that simple paperwork errors—or improperly classified shipping documents—trigger costly delays in border clearance. By working closely with local regulators and customs brokers, we clear hurdles before they appear, from regular samples for quality inspection to bulk truckloads for factory refilling.
Paper documentation cannot replace line-side vigilance. Daily plant practice requires constant attention to dust mitigation and airflow, since nitroaromatic dusts can cause headaches or mild irritation if allowed to accumulate. Our manufacturing and loading bays are built with purpose-fitted dust collection—and we never skip mask, eye protection, or gloves for “just a quick batch.” Auditors and clients who visit see for themselves the visible difference between process documentation and demonstrated practice.
Waste management evolves in real time with our production, since discharge of nitro- and sulphonated waters into municipal drains faces close regulatory scrutiny. Each new process campaign undergoes a full review of waste streams, holding spent liquors and rinses for separate treatment. Much of our off-site waste leaves in closed barrels, treated currently by experienced partner facilities. Reducing solvent waste through reactive distillation and solvent recovery remains a division-wide target, and finished goods never ship with excess residue.
Our EH&S (Environmental, Health, and Safety) system expands every time there is a new regulatory alert or customer need. This happens not through quarterly reviews, but directly as team leaders and process staff spot trends on the floor. Upgrades in labeling, fresh air makeup, or chemical detectors roll out as soon as risk is identified. 3-Nitrophenyl Sulphone presents no unique hazard beyond standard nitro compounds, but constant vigilance makes the difference between near misses and safe years in operation.
Since 3-Nitrophenyl Sulphone feeds into high-value and timed production runs, producers confronted plenty of logistical headaches during recent years. Spiking energy costs, shipping delays, and global raw material disruptions forced us to rethink procurement, safety stocks, and even on-site storage. We augmented our bulk storage to buffer against stoppages in upstream nitrobenzene supply. We refined purchasing to work with suppliers who demonstrated dependable on-time delivery and clear origin. We retooled processing to run with alternate solvents or backup purification steps where necessary—not simply to keep costs down, but because a day lost on the reactor costs our customers much, much more down the line.
Buyers and planning specialists who deal directly with manufacturers know the true story behind smooth deliveries isn’t bulk discounts or one-off deals—it’s responsiveness on the plant floor. We prioritize reliability over volume, because an unplanned delay in intermediate supply can bring an entire production line to a halt. Project managers, formulators, and procurement staff benefit when they talk directly to a manufacturer who understands the chemical from raw material sourcing to finished batch.
Colleagues, partners, and customers contact us daily for nuanced questions about how our 3-Nitrophenyl Sulphone is produced, cleaned, and packed. Can material run to a tighter color specification? Does increased storage or transit time impact physical appearance or trace impurity levels? How does it blend in multilayer formulations or survive high temperature curing? Our technical staff answers from experience, not theory: we reference past batch records, long-term stability data, and real-time production notes to provide clear advice. Because we handle these substances in tonnage volumes, our troubleshooting comes from direct exposure, not a generic tech sheet.
For more technical audiences, we run open-door discussions with laboratory and production specialists. Topic-by-topic, we tackle analytical details, NMR spectra, chromatogram traces, or specific process flow questions. Requests for individualized certificate of analysis or tailored test runs are handled openly, since research and scale-up projects thrive on this level of specificity.
Practical questions also come up regarding transition to higher production scales, safe ventilation, or engineering controls for dust and bulk powder transfer. We have faced most of these issues firsthand in our own plant expansions, so advice is based on applied experience. No theoretical workaround replaces a well-maintained screw conveyor or correctly installed dust collector. The path from small benchtop synthesis to full industrial campaigns only runs smoothly when you draw on the lessons from previous builds, missteps, and improvements.
Years of hands-on chemical production taught us that true innovation rarely comes from lab-scale novelty—it happens when the process shifts to create better value, resilience, or environmental performance at scale. Manufacturing 3-Nitrophenyl Sulphone, we evaluated and implemented process intensification measures: heat exchangers to lower thermal load, alternative filtration systems to improve clarity and retention, and advanced in-line monitoring for real-time quality management. Each measure grew out of trial, error, and practical feedback from the production floor. Improvements that last the test of time are always rooted in responsiveness to actual plant data and feedback loops with customers working under tight deadlines.
Process improvement shares a direct relationship with environmental priorities. New solvent systems that cut VOC emissions, recycling of process waters, or reduced utility consumption often pay back over months rather than years. Not every change originates in regulatory shifts; often, cost pressure and customer demand for “cleaner” production provide the real imperative for process overhaul. Every round of feedback from research leaders or purchasing officers feeds directly into our production review, pushing us toward safer handling, better reliability, and a more sustainable workflow.
Product development never stays static. Each year fresh projects land on our engineering desk—demands for smaller or larger packaging, modified handling procedures, totally different drying parameters, or even alternate isomer ratios. We support research into new applications with kilogram-scale samples, and roll out successful projects for full-scale tonnage production with the same technical oversight as standard material. As the needs of the market evolve, our technical and operation staff invest in new testing, fine-tune protocols, and keep an open channel with customers developing next-generation products from 3-Nitrophenyl Sulphone.
Anyone in the chemical sector can sell a product once. Building relationships around complex intermediates like 3-Nitrophenyl Sulphone takes repeated, direct handling, accountability for every batch, and personal engagement in troubleshooting. Project managers and technical staff working with us know that feedback flows both ways—each missed target or unexpected result generates process review and open communication, not excuses or silence. Long-term users of our product drive much of our continuous improvement by sharing research failures, production bottlenecks, and sometimes just an urgent request for replacement or expedited shipment.
Choosing to work directly with a manufacturer instead of a reseller pays off project after project. From conception through production and delivery, every stage is visible and controlled by a team with a stake in results. Ultimately, real manufacturing builds trust one delivery at a time, on the strength of experience and a shared commitment to quality, responsiveness, and ongoing improvement. 3-Nitrophenyl Sulphone exemplifies how shared expertise, technical depth, and real-world adaptability combine to support researchers and industrial users pursuing breakthrough projects—every day, from every batch.