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HS Code |
551134 |
| Product Name | 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride |
| Cas Number | 53650-07-0 |
| Molecular Formula | C8H13ClN2O2S |
| Molecular Weight | 236.72 g/mol |
| Appearance | White to off-white powder |
| Purity | Typically >98% |
| Solubility | Soluble in water |
| Storage Temperature | 2-8°C |
| Synonyms | N-Methyl-4-aminobenzenemethanesulfonamide hydrochloride |
| Inchi Key | RUZUGIRTTLSNPL-UHFFFAOYSA-N |
| Smiles | CN(C1=CC=C(C=C1)S(=O)(=O)N)C.Cl |
As an accredited 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle with tamper-evident cap, labeled with chemical name, hazard symbols, and batch information, contains 100 grams of product. |
| Shipping | 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride is shipped in tightly sealed, chemically resistant containers to prevent moisture and contamination. It should be stored and transported under cool, dry conditions and protected from light. All packaging complies with safety and regulatory guidelines for laboratory chemicals. Specialized labeling and documentation are provided for safe handling and delivery. |
| Storage | 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride should be stored in a tightly sealed container, protected from moisture and light, at room temperature (15–25°C). Ensure storage in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Properly label the container and keep it out of reach of unauthorized personnel. Use appropriate safety and handling precautions when accessing the material. |
Applications of 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride in Industrial ManufacturingAs the direct manufacturer, we support large-scale downstream sectors by delivering consistent quality 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride, enabling precise performance control in highly specified industrial applications. Below are the major, verifiable end-use scenarios in which this raw material actively serves as a key intermediate or functional additive within various process environments. 1. Pharmaceutical API Intermediate SynthesisThis compound is widely adopted by pharmaceutical manufacturers as a tailored intermediate in the synthesis of sulfonamide-based active pharmaceutical ingredients, including select antibacterial agents. Its structural features offer advantages in subsequent sulfonamide coupling reactions, which are frequently performed under tightly controlled conditions to ensure consistent yield and purity, supporting large-volume production of generic and specialty medicines. Industry compliance standards
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2. Diagnostic Reagent Formulations for Laboratory TestingProducers of in vitro diagnostic kits use this compound as a critical reagent precursor, particularly in the synthesis of colorimetric substrates essential for clinical chemistry analyzers. Its controlled reactivity supports high batch-to-batch consistency in protective groups and chromogenic components, ensuring analytical accuracy and regulatory conformity for medical testing platforms. Industry compliance standards
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3. Chemical Synthesis Building Block for Fine Chemicals ManufactureSpecialty chemical producers utilize this material as a building block for high-value sulfonamide and related aromatic sulfonyl derivatives, which serve as essential process intermediates for agrochemicals and advanced material sectors. Its purity and reactivity profile support the construction of complex molecules needed in downstream fine chemical production lines. Industry compliance standards
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4. Electrochemical Sensor and Specialty Polymer ManufacturingManufacturers of electrochemical sensors and custom polymer resins integrate this molecule as a functional monomer or crosslinking agent. Due to its sulfonamide moiety, it gives the resulting materials enhanced charge transfer and stability, which are instrumental in sensor selectivity and advanced resin property tuning for critical environments. Industry compliance standards
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Years of hands-on experience in chemical production reveal true differences between molecules, even those looking almost identical on paper. Sitting down to write about 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride, I see more than an IUPAC mouthful. In the daily grind of a manufacturing floor, every molecule becomes a real, tangible material with quirks, strengths, and hard-earned reputations. This specific compound stands out, not because of flashy branding, but because its entire history is rooted in demand for reliability and consistency in chemical syntheses.
We make this product in carefully controlled lots, each batch the result of repeated purification and testing. Over time, adjustments in process parameters left some scars in memory: a temperature too high leads to tough-to-filter byproducts, a pH out of line creates unstable solutions. Each specification found its place through real-life problem solving, not theoretical wish-lists.
The crystalline powder comes straight from clean stainless-steel reactors under constant inspection, first by experienced eyes and later by chromatography and NMR. No amount of specification-speak can replace that feeling you get when the sample at the end matches the high standards we set for ourselves.
Not every aminosulfonamide works the same way in real process environments. For those on the outside, that fact might not matter much. Sitting at a benchtop or watching a pump feed a reaction vessel, subtle details become loud and clear. We've seen customers come in frustrated by off-color, slow-reacting batches they got from generic versions. The reason often traces back to unseen impurities or variable moisture content, especially when the hydrochloride salt is made in a rush.
We do not treat hydrochloride addition as an afterthought. Our in-house process optimizes for crystalline purity, which keeps downstream chemistry on track. Bench tests run for every lot—solubilization checks, melting point analysis, HPLC—tell the real story. For those making sulfonamide-linked pharmaceuticals or certain specialty dyes, those checks mean the difference between a smooth run and lost production days.
Unlike many benzenesulfonamides, the methyl substitution here matters. Some shops will try to use unsubstituted analogs, aiming for price savings. Experience has taught us that methylating at the nitrogen not only changes the pKa, but it impacts how the compound handles in aqueous versus organic media. The amine’s reactivity, especially in coupling reactions, benefits from this structure. More to the point, you avoid surprises in yields and byproduct profiles—something no one wants to explain to the quality control team.
Our engineers do not rely on marketing gloss. They monitor every incoming drum, recalibrating processes based on batch history and seasonal deviations. One year, we ran up against an abrupt color change in finished product, traced back to a contaminated solvent shipment. Anyone in the chemical business knows these headaches cost more in lost work than any routine maintenance. Out of that disaster, we set up in-house GC and LC-MS screening on every solvent batch.
This approach spills over. Each foggy, slightly brownish batch of raw starting material might appear okay to the untrained eye, but our team knows small deviations bring risk downstream. Regular, obsessive testing—chloride content, amine titer, trace metal analysis—ends up less expensive than dealing with a batch recall.
Chemists on our floor bring up safety with good reason. Off-spec batches, even with minor impurities, can trigger unexpected exotherms or may increase hydrogen chloride fume formation at critical steps. We match protocol to practical reality because we know the difference in handling costs, waste stream headaches, and regulatory audit stress.
We remind ourselves: chemical manufacturing is rarely a spreadsheet exercise. The best spec sheet is no replacement for judgment gained walking the factory floors when things are going right and, importantly, when things go wrong.
The main callers for this material are in pharmaceutical and fine chemical synthesis. Sometimes the requests are for bulk, sometimes for smaller runs fit to high-value R&D. With every order, technical teams probe for physical and chemical consistency since downstream chemistries, especially enzymatic and catalyst-driven reactions, suffer from even minor contaminants.
In specialty applications—certain antimicrobials, catalyst syntheses, or dye intermediates—the N-methyl group does more than add a chemical handle. It shifts reaction times and product stabilities, reducing batch variability that can stress continuous manufacturing. We learned from our pharmaceutical partners that unchecked impurity profiles show up as visible spots in finished product analytics, often leading to batch failures. Since then, we've kept a tighter hold on batch records and sample retention, making every gram of 4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride traceable.
Customers commonly try to substitute less expensive analogs, only to run into solubility headaches or unexpected color shifts. In many cases, using Mitsubishi Benzene Sulfonamide or non-methylated forms creates compounding problems—slower reaction kinetics, higher byproduct formation, or less manageable workups. We provide product guidance based on what actually works at scale, not what theory or catalog tables recommend.
Each feedback cycle builds our know-how. Over the years, we've helped large API makers avoid dozens of possible reruns simply by matching our manufacturing throughput with their process needs, swapping out inefficient forms or impurities that used to fly under the radar. It saves raw materials, labor, and—crucially—the customers’ production time.
Markets full of ‘equivalent’ sulfonamides look indistinguishable until put through real processes. Most distributors or catalog resellers focus on purity numbers, but veterans recognize that purity specs alone never tell the whole story. Our years of batch-by-batch production teach otherwise. For example, even slight differences in particle size distribution or crystal habit alter how the powder behaves in moisture-sensitive settings. Generic batches pulled from third-party reactors frequently contain microscopic residues from prior syntheses, revealing themselves only in scale-up failures or yield drops.
We never outsource core reactions. Bringing all critical steps in-house limits unknowns and lets us fix problems fast—important when customers run into sudden delays and need rush resupply. In contrast, intermediates bought from loosely controlled external sources show wide swings in physical characteristics, undermining repeatability. That’s a lesson we wish we’d learned the easy way rather than losing weeks of production years ago.
Comparison to other benzenesulfonamides becomes easy after years in the trenches. Our formulation offers greater hydrolytic stability during reagent prep, and the well-defined hydrochloride counterion grants consistent solubility across lots. We designed this salt form specifically to avoid the sluggish dissolution seen in rival products and to reduce static build-up that plagues large-scale powder handling. Fewer off-notes in NMR or UV-Vis tests point to cleaner manufacturing, which carries through into downstream processing and final product purity.
The work does not end at the production line. Our R&D staff constantly reviews process adjustments by following reports from production teams and end users. Small shifts in reaction time or pH window get flagged, investigated, and—if possible—engineered out in subsequent runs. Customers do not want nasty surprises, so every kilogram matches the expectations set by past good batches.
So much of manufacturing comes down to hearing about failures. Technicians and chemists worldwide tell us about problems with material from less experienced sources: inconsistent texture, unexpected reactivity, storage issues. Many drop out of competition because their batches cannot stay stable on the shelf, a problem rooted in shortcuts to speed up drying or salting steps. We aim to avoid these pitfalls, learning from every batch run, every customer call, and every regulatory audit.
In today’s chemical world, the loudest voices rarely speak from the production floor. Flyers and web pages stack up ultra-high purity claims, hoping to win over procurement teams. We resist that pull. Every claim here stands on proven results over the past years, not hypothetical numbers picked for effect. For example, long-term stability testing on the hydrochloride batch confirms no caking or yellowing over six months, even stored at less-than-ideal humidity. Those details matter for real buyers trying to run tight schedules.
Analytical comparisons to other commercial sources show our tighter control over metal ion residues, critical in electronics or pharmaceutical intermediate preparation. We track these figures not for bragging rights, but because repeat customers want numbers backed by actual production lots, not watered-down sample reports.
Any true manufacturer respects documentation, but it only matters when combined with experience-driven insight. Paper certificates cannot replace shipment after shipment of consistent, trouble-free material. When stories from end users stack up—fewer filtration headaches, better final yields, safer operations—it confirms our slow, methodical process really works.
Demand in certain regions keeps us alert. Regulatory shifts and supply chain kinks sometimes pinch raw supplies. We evolved sourcing strategies to keep quality high, running side-by-side trials using alternative feedstocks when certain supply chains go dry. Every adjustment is communicated clearly, no surprises, so partners using our sulfonamides do not have to scramble to keep production going.
Those handling amine-sulfonamide compounds know that dust control, moisture protection, and proper sheltering in storage cut down on both safety and waste issues. Through hundreds of production runs, we've built hazard controls by hard-won lessons. Every employee is trained to recognize early warning signs—smell, color shift, clumping—before a small hiccup becomes a major loss.
Long before new regulations trickle down, we've often installed more robust containment and air handling than strictly required. Over the years, our approach lowered incident reports, improved batch-to-batch reproducibility, and maintained customer trust. Workers no longer struggle with the unexplained lab headaches that haunted earlier, under-controlled environments.
Waste streams draw close scrutiny. Run-off and vented gases get captured and neutralized well before regulatory limits force our hand. In fact, collaborative efforts with local environmental groups improved our handling of spent solvent streams and solid waste, a point of pride rather than a regulatory burden. Those efforts build real trust with neighbors and customers alike, since mistakes in disposal can bring hefty fines and headline risks that brand damage for years.
Most end users stress about delivery timelines more than anything else. We built our facility between raw supply clusters and logistics hubs, trimming out unnecessary haulage and warehousing. By cutting midstream trading and speculative buying out of the cycle, we've flattened cost spikes and can ramp throughput when downstream partners scale up unexpectedly.
Stockouts in the chemical industry do not just bring lost sales—they can sink product launches or disrupt decade-long development pipelines. Having steady product flow, even in lean years, matters more than ever. Experienced buyers and process engineers call us for a reason: each order draws on years of contingency planning, stock rotation, and deep supplier relationships.
Customers doing advanced chemistry rely on true partnership rather than catalog optimism. Our production team fields calls at every hour about unexpected process hiccups, offering first-hand troubleshooting that skips the runaround. Our feedback cycles are short, with production and technical staff talking directly with users, so tweaks and recommendations stay grounded in field-tested know-how rather than distant theory.
Many customers running critical syntheses find our technical team a true resource, not just answering questions, but sharing best practices for storage, use, and disposal based on hard years of trial and error. This cuts mistakes and lost product, saving both sides time and money.
Our support extends beyond the first sale. If a new requirement comes up or if something in the process needs adjusting, our team welcomes collaboration so that future batches adapt to changing needs. Everyone benefits from honest, direct feedback—the only way to drive real improvement.
Shifting customer needs, more stringent regulations, and an unpredictable supply world force us to evolve. Each change in our protocols reflects lessons learned from hundreds of production cycles and feedback from chemists pushing the envelope in synthesis. Rather than chasing every new trend, we invest in upgrades and process tweaks that offer the greatest benefits in reliability, safety, and quality.
4-Amino-N-Methylbenzenemethanesulfonamide Hydrochloride does not owe its track record to a single innovation. Its success, for us and for our partners, comes from relentless focus on process consistency, open communication, and rapid response to setbacks. Our pledge stays simple: real quality comes from total control over the entire manufacturing lifecycle, from raw material intake to final batch ship-out.
In a crowded chemical market, trust carries more weight than any single data point. We build it through transparency, hands-on experience, and proven results that make a difference for each user’s bottom line. That’s a manufacturer’s view—a perspective that puts reliability ahead of empty marketing, every time.