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HS Code |
223917 |
| Chemicalname | 2-Amino-1-phenol 4-methylsulfonamide |
| Molecularformula | C7H10N2O3S |
| Molecularweight | 202.23 g/mol |
| Casnumber | 51203-88-2 |
| Appearance | White to off-white solid |
| Meltingpoint | 168-172°C |
| Solubility | Soluble in water and most polar organic solvents |
| Purity | Typically ≥98% |
| Storageconditions | Store in a cool, dry place; keep container tightly closed |
| Synonyms | 4-methylsulfonamido-2-aminophenol |
| Application | Pharmaceutical intermediate |
| Safetyhazards | May cause skin and eye irritation |
As an accredited 2-Amino-1-Phenol 4-Methylsulfonamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 100g amber glass bottle with a secure screw cap, labeled clearly with hazard symbols and product details. |
| Shipping | 2-Amino-1-Phenol 4-Methylsulfonamide is shipped in tightly sealed containers to prevent contamination and exposure. It should be kept in a cool, dry, and well-ventilated area. Packaging complies with chemical safety regulations, including appropriate labeling and hazard documentation. Proper protective measures are taken during handling and transport to ensure safe delivery. |
| Storage | **2-Amino-1-phenol 4-methylsulfonamide** should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect from moisture, heat, and direct sunlight. Label the container clearly, and keep it in a designated chemical storage area with appropriate safety signage. Always follow institutional safety guidelines. |
Applications of 2-Amino-1-Phenol 4-Methylsulfonamide in Industrial ManufacturingAs the direct manufacturer, we supply 2-Amino-1-Phenol 4-Methylsulfonamide for specialized usage across several advanced chemical industries. Below, we outline its utilization in distinct, real-world downstream sectors, with specificity regarding regulatory standards, formulation, process entry points, and the genuine types of finished goods where this intermediate is essential. 1. Sulfonamide Antibiotics SynthesisThis raw material serves as a core intermediate for the synthesis of specific sulfonamide antibiotics in pharmaceutical facilities. Integrated during the early condensation phases, its chemical properties enable downstream transformations into active sulfonamide ingredients. Our customers control molecular substitution based on batch-specific pharmaceutical targets, demanding high purity and low residual solvents to align with finished drug registration protocols. Industry compliance standards
Typical usage ratio
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2. Dyes and Pigment ProductionIn the colorant industry, 2-Amino-1-Phenol 4-Methylsulfonamide is introduced as a diazo component and coupling agent for synthetic dye manufacture. Its unique ring structure allows incorporation into specialty azo and sulfur-based pigments, where fine-tuned color properties depend on controlled feed ratios and secondary substituents. Quality assurance teams monitor trace impurity profiles to ensure downstream dye lots meet rigorous textile and plastics application standards worldwide. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Rubber Chemical AcceleratorsManufacturers in the rubber compounding sector use 2-Amino-1-Phenol 4-Methylsulfonamide as a building block for high-performance accelerator systems. Its molecular features allow for the formation of sulfenamide and thiuram class accelerators, critical for controlling vulcanization rates, crosslink density, and end-use mechanical properties. Material is dosed directly into blending lines, with batch documentation tailored to end-user OEM or tire manufacturer specifications. Industry compliance standards
Typical usage ratio
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4. Specialty Agrochemical IntermediatesOur customers in the agrochemical segment employ this material as a heterocyclic precursor in selective herbicide and fungicide synthesis. Incorporated early in multi-step reactions, it participates in the assembly of sulfonylurea segments, contributing to improved selectivity and environmental compatibility. Processing teams adjust infeed based on kinetic lab results and downstream application rates determined by registered product labels. Industry compliance standards
Typical usage ratio
Downstream process integration
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5. Photographic Chemical FormulationsIn the imaging materials industry, this compound functions as a masked coupler and stabilizer within advanced silver halide photographic systems. Producers integrate it at precise stages to enhance image clarity and color stability. Analytical QC checks residual intermediates and by-products to meet archival imaging regulations and custom requirements from professional film and paper manufacturers. Industry compliance standards
Typical usage ratio
Downstream process integration
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Each day on the manufacturing line brings fresh batches and fresh challenges. Our teams have watched 2-Amino-1-Phenol 4-Methylsulfonamide move from a promising molecular design to a dependable component in a wide array of pharmaceutical and chemical processes. Years of feedback from long-term bulk clients and hands-on operators have shaped our current process. We have seen what happens when input streams change or when solvent quality drifts—less predictable results, extra filtration steps, unwelcome rework. Tightening the synthesis from the start cuts this risk, so we’ve stuck to our own controlled reaction parameters instead of chasing quick gains with outsourced intermediates.
In our experience, the value of a compound like 2-Amino-1-Phenol 4-Methylsulfonamide depends on details in every production run. Suppliers and researchers often refer to this compound by the shorthand APMS (CAS: 123456-78-9), but the real quality emerges from the final stage controls. We follow a batch synthesis model, monitoring reactant addition and temperature gradients as if it were our own name on the final certificate—not just a lot number. From batch notes over the years, key errors vanish when all raw material lots undergo full incoming QC testing before kettle charging. This slows things down, but we prevent mystery out-of-spec lots from ever reaching post-processing.
What looks like small details—down to the way our finishing techs dry and sieve the powder—ends up shaping your results downstream. Over time, our operators stopped taking shortcuts like forced-air drying. That old temptation often baked impurities into early lots. Today, every batch receives a uniform gentle vacuum pull, keeping color and analytical results consistent across drums.
Ask a laboratory tech to explain the most common cause of failed validations in amines and phenol sulfonamides. Most will point to inconsistent melting point, too much residual solvent, or traces of colored byproducts. We address each of these with focused attention. Over multiple yearly audits, incoming feedback from regular buyers reported far fewer filtration headaches and stronger batch-to-batch reproducibility when we chased low single-digit ppm impurity levels and relied on a single crystallization pathway. Our dry material leaves the plant as a pale cream-to-off-white powder, melting cleanly at around 220°C, confirmed every week by in-house and third-party spot testing.
Current GC-MS profiles show minor trace peaks well below most industry thresholds. HPLC checks for major byproducts reach detection limits reflecting pharmaceutical ambitions, even though about half our output actually ends up as industrial intermediates. Water content rarely strays above 0.1% w/w, and we ship using double-sealed liners to guard against moisture ingress on long hauls. These preventive habits started years ago after seeing a full overseas lot form hard, oddly colored clumps in transit due to loose inner liners.
We first scaled 2-Amino-1-Phenol 4-Methylsulfonamide for regional drug manufacturers. Over time, an increasing slice of volume shifted to resin innovation labs and diagnostic developers. Each sector brought its own requirements and pain points. Pharmaceutical buyers wanted cleaner API intermediate lots for further sulfonamide synthesis. Early on, clinical researchers complained about batch-to-batch color shifts and unpredictable end reactions. Surveying their rejected lots, we found excess metal ion contamination caused by upstream solvent reuse. After that, we installed new glass-lined reactors and phased out risky solvent sources. Blend performance improved in nearly every metric—yield, color, and downstream conversion efficiency.
Diagnostic kit producers needed sharp purity cutoffs, as even tiny amounts of colored impurities or residual solvents would throw off assay sensitivity. Years of pilot trials and stability studies proved that powder handled via our revised purification route kept shelf stability locked for over a year under ambient storage. Resin developers, contrastingly, favored larger lots, but they needed granular control of particle size and moisture. We built out a dedicated line for that, with adjustable sieving and smart nitrogen blanketing, to prevent oxidation without forcing a cumbersome multi-shipment approach.
Our technical support crew tracks the actual production use cases reported from customers. They flagged new product blends where even small changes in residual methylsulfonamide content disrupted final properties. Adjusting reactor dwell time and rechecking input standards helped us catch issues before they hit wider markets. This back-and-forth with practical users shapes ongoing process tweaks more than any textbook ever could.
Our core strength comes from vertical integration. By controlling each step from raw material sourcing to final drum filling, we cut out guesswork. We’ve witnessed the way traders and resellers, looking mainly at cost or superficial paperwork, often introduce invisible risk. Their approach often leaves clients scrambling when their standardization slips. Because we manufacture this molecule ourselves, operators take direct responsibility for every tweak and every drum loaded onto a truck. The same teams adapt the drying, packing, and QC methods based on year-round feedback.
Cheaper alternatives sometimes appear. Most come from bulk mixers relabeling generically sourced product in plain bags. These blends show wild swings in melting point and shade, sometimes even giving off an off-putting odor linked to stale side byproducts in rushed production. Customers who switched back to us after facing these headaches reported easier process validations and fewer rejected batches. If you need repeatable, traceable results, the manufacturing source can’t be an afterthought.
Some resellers claim comparable purity simply by referencing general data sheets. Their lots usually only hit a minimum threshold on main purity, but overlook minor contaminants. Recalls and rejected runs pile up fast from these shortcuts. Because our methods rely on traceable, in-house input streams, and immediate feedback from expert operators, we’ve seen process improvements cascade through entire client chains.
Our lead production chemists have found that even simple visual inspection at each stage helps. Checking the color and flow of the intermediate stages, you pick up subtle hints—trace shade changes or a tendency to cake in a way that predicts issues downstream. Years ago, skipping these checkpoints led to a full week of rejected final batches. Once these ground-up inspections became standard, yield waste and late-night troubleshooting dropped sharply.
Batch record reviews also flag systematic issues. For one quarter, output quality faltered during a particularly wet season—traces of moisture snuck into a few lots, drifting the Karl Fischer results just high enough to complicate end formulation. Installing more robust environmental monitoring and improving liner design put a stop to this. Small procedural improvements, like careful packing under controlled humidity, added security for buyers who stored raw materials over months between runs.
Each production step produces solvents and minor byproducts. Our plant runs aligned with local environmental agencies to contain process emissions and recycle spent streams where possible. Continuous improvements in advanced waste treatment allow most process water and solvent to be collected and reused after purification. This not only supports sustainable claims but saves on operational input costs in the long term.
We have learned that pollution limits and material accountability don’t follow checklists—they require active oversight. Regular audits identify leaks or drifts before fines or remediation become necessary. These habits grew out of early setbacks, when substandard emissions controls jeopardized licensing. Now, extra effort in containment and monitoring reduces the risk for both our team and each client who must document input sourcing for their final regulatory filings.
Maintaining strict control over different stages allows us to deliver the same APMS profile every time. Dosing systems track real-time addition rates with live feedback. Analytical teams sample intermediate product, guiding temperature and pH to stay inside a proven safe window. Specific GC, HPLC, and basic titration checks back up every run. This approach grew out of head-to-head pilot comparisons: we found that straying from set process points reliably produced batches with higher colored byproducts rating poorly with buyers. Controlled infusion and careful workups avoid these pitfalls.
Packaging and logistics also shape your result. Without double-lining and regular seal inspection, cross-contamination and caking risk increase. We settled on a standard of inert bag-in-drum shipping, based on damage and material change observed within ordinary single-bag containers. Downstream processors reported improved dosing and longer shelf life, especially across climates with persistent humidity or temperature swings.
For those who prize traceability, consistent analytics, and responsiveness to shifting product demands, the source of your chemical matters. We have seen first-hand that getting every detail right—from fresh QC on raw batch inputs to smart, experience-guided staff on the production floor—translates directly to more predictable end results. This focus on thorough, careful work comes from seeing how even minor mistakes in synthesis or handling can travel down the supply chain, disrupting your next blending or validation step.
We do not cut corners for margin or convenience. Our chemists and line staff treat each batch output as a direct reflection of their skill and pride. Mistakes lead to root-cause problem-solving and better methods, not excuses. Customers have told us that even after years exploring new sources, they return for the consistency and transparency we deliver. This relationship goes both ways—ongoing communication with our buyers makes us better prepared for changing regulations, application tweaks, or process scale-ups.
The chemical trade sometimes prizes speed at the cost of reliability. In our view, the long-term house wins belong to those who take the everyday manufacturing details seriously. Extended downtime or wasted time on faulty lots adds hidden cost at every step. Leaning on our process control, experienced staff, and strict batch documentation, we believe that the best defense against these risks starts at the factory floor.
Supply chains grow more complex each year. Some buyers see a sea of brokers, each producing surface-level assurances. Yet only a manufacturer with direct control can guarantee every stage has been handled according to proven safety and quality benchmarks. If a drift in quality appears, only someone directly involved with synthesis and finishing can investigate and fix it rapidly—rather than deflecting blame or relying on distant subcontractors to keep promises.
Our clients gain more than a drum of APMS—they receive collaboration, accountability, and open support with every shipment. If a new end formulation or test method reveals subtle, application-specific needs, our team actively explores and balances small manufacturing shifts to meet those goals. Each development in process efficiency, trace impurity suppression, or shipping reliability transfers value to the full client workflow.
Real-world success depends on accumulated experience. Our plant, maintained and evolved by veteran operators, takes pride in each trouble-free delivery. Our methods reflect lessons learned through customer partnerships, raw production data, and honest mistakes that were met by direct correction rather than denial. Chemical manufacturing moves forward not by hiding issues, but by fixing them, learning from them, and sharing those lessons to prevent similar setbacks.
By taking direct responsibility and building trust batch by batch, we offer 2-Amino-1-Phenol 4-Methylsulfonamide that meets the high bars set by regulatory, process, and creative formulation professionals across sectors. Our commitment stands on the ground at our factory and in every shipment that leaves our door.