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HS Code |
555374 |
| Chemical Name | Hydroxylamine Hydrochloride |
| Chemical Formula | NH2OH·HCl |
| Cas Number | 5470-11-1 |
| Molar Mass | 69.49 g/mol |
| Appearance | White crystalline solid |
| Solubility In Water | Very soluble |
| Melting Point | 151°C (decomposes) |
| Odor | Odorless |
| Ph 1 Solution | 2.5 - 3.5 |
| Stability | Unstable when heated or in contact with air |
| Storage Conditions | Store in a cool, dry, and well-ventilated place |
| Boiling Point | Decomposes before boiling |
| Density | 1.67 g/cm³ |
| Synonyms | Hydroxylammonium chloride |
| Hazard Classification | Harmful, irritant, potentially explosive |
As an accredited Hydroxylamine Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Hydroxylamine Hydrochloride is packaged in a sealed, white HDPE bottle, 500g net weight, with proper hazard labeling and safety instructions. |
| Shipping | Hydroxylamine Hydrochloride is shipped as a white crystalline solid in tightly sealed, corrosion-resistant containers. Classified as a hazardous material (UN2923), it requires labeling for toxic and corrosive substances. Transport must comply with relevant safety regulations, avoiding heat or incompatible substances to prevent decomposition and ensure safe delivery. |
| Storage | Hydroxylamine Hydrochloride should be stored in a cool, dry, well-ventilated area away from heat, sparks, and sources of ignition. Keep the container tightly closed and protected from light and moisture. Store separately from oxidizers, acids, and combustible materials, as it may be sensitive to shock or friction. Follow all regulatory requirements and safety guidelines for hazardous chemicals. |
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Purity 99%: Hydroxylamine Hydrochloride with a purity of 99% is used in electronic purification processes, where it ensures the removal of metal ion contaminants to semiconductor-grade levels. Molecular Weight 69.49 g/mol: Hydroxylamine Hydrochloride with a molecular weight of 69.49 g/mol is used in pharmaceutical synthesis, where it enables consistent stoichiometry for high yield of active pharmaceutical ingredients. Melting Point 151°C: Hydroxylamine Hydrochloride with a melting point of 151°C is used in heat-sensitive polymerization reactions, where it provides thermal stability and minimizes degradation during processing. Particle Size <100 μm: Hydroxylamine Hydrochloride with a particle size below 100 μm is used in fine chemical manufacturing, where rapid dissolution and homogeneity in solution are required. Aqueous Stability up to pH 7: Hydroxylamine Hydrochloride with aqueous stability up to pH 7 is used in laboratory reduction assays, where reliable reducing efficiency is maintained across neutral pH conditions. Low Chloride Impurity (<0.1%): Hydroxylamine Hydrochloride with low chloride impurity below 0.1% is used in sensitive dye formulation, where product quality and color consistency are crucial. Residue on Ignition <0.5%: Hydroxylamine Hydrochloride with a residue on ignition of less than 0.5% is used in diagnostic reagent production, where minimal inorganic residue ensures high assay sensitivity. |
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Chemical products, when they get introduced to daily practice in research, manufacturing, or even small-scale workshops, often bring unique challenges and opportunities. Hydroxylamine hydrochloride stands out as a versatile and reliable compound, available in granular, crystalline, and powder forms, typically with a purity of 99% or higher. Each form delivers a slightly different performance based on what’s required in the lab or on the production floor. Scientists and engineers reach for this product because it combines high stability with ease of handling, giving it an important place in both experimental and industrial setups.
Experience working with different chemicals boils down to trust in consistency and reliability. Often, you can tell a lot about a chemical from its handling: its aroma, tendency to clump under humidity, and behavior during reactions. Hydroxylamine hydrochloride, white and water-soluble, arrives with minimal clumping and dissolves quickly. In schools and industry, users count on these straightforward behaviors to get predictable results, whether it’s for textile processing, rubber stabilization, or the nuanced world of synthetic chemistry.
While textbooks might describe hydroxylamine hydrochloride as a reducing agent, real-world work shows its reach goes much further. Laboratory work sees it cleaning up traces of aldehydes and ketones, stopping unwanted side reactions and streamlining syntheses. Diagnosticians use it in blood analysis kits. Manufacturers count on its role as an antioxidant during polymer stabilization, keeping plastics or rubbers flexible and free from premature aging. Its selective reactivity allows for targeted modifications in pharmaceutical intermediates, agriculture chemicals, and specialty dyes.
Comparison with similar products, such as hydrazine or sodium borohydride, reveals some major distinctions. Hydrazine may work as a reducing agent, but its volatility and toxicity pose greater risk during storage and use. Sodium borohydride remains powerful, but it brings its own limitations in cost and narrow reaction scope. Hydroxylamine hydrochloride often gets the nod for its balance of strength, selectivity, and manageable safety profile. Industrial chemists favor it in processes where safety and process control matter just as much as the reaction endpoint.
The value of a chemical product isn’t just measured by purity or packaging, but by how teams incorporate it into regular work. Early in my career, while working on synthetic routes for pharmaceutical intermediates, hydroxylamine hydrochloride enabled conversion steps that would otherwise require hazardous alternatives. Instead of wrangling with unstable hydrides or gas evolution, we managed gentle reactions at room temperature, getting more consistent yields. Watching technicians in textile mills bleach delicate fibers using this compound—without degrading the material—reaffirmed its practical worth well outside the traditional chemistry lab.
Much gets made about alternatives on the market. Certain products tout faster reduction rates or broader solvent compatibility, but actual outcomes can frustrate unless you factor in reactivity nuances. Hydroxylamine hydrochloride interacts with a variety of substrates, yet it offers a certain restraint that prevents over-reaction, which helps avoid byproducts that complicate purification. Not every reducing agent can say the same. Differences become obvious when compared to simple hydroxylamine base, which lacks the stability and safe handling offered by the hydrochloride salt.
I’ve worked with clients in the dye sector who initially tried to use sodium dithionite for reduction steps, only to discover color bleeding or loss of shade depth. Hydroxylamine hydrochloride, with its milder action, gave them improved results and better batch-to-batch reproducibility. Users in electronics and photochemical applications found that certain catalytic processes demanded both precision and gentle touch—qualities that set this compound apart from stronger, riskier agents.
Every chemical on the shelf comes with its quirks, and there’s no value in downplaying shortcomings. Storage stands as a common concern, especially for moisture-sensitive powders and salts. Hydroxylamine hydrochloride fares better than some related compounds, holding up well if stored in tightly sealed containers under cool, dry conditions. Disposal raises questions too; spent solutions, depending on their use case, require careful neutralization to avoid downstream issues in wastewater handling. The industry often leans on best practices from major chemical safety boards, and these have served my teams well over years of use.
Scalability shapes many production landscapes. Small-volume labs and massive manufacturing plants look for chemicals that scale predictably. Hydroxylamine hydrochloride supports both contexts. I recall a project involving specialty herbicide intermediates—what worked in a flask on the bench needed only minor tweaks when scaled to the kilo level in a pilot plant. This flexibility reduces the need for labor-intensive supervision, and staff remains confident that processes will repeat reliably.
Sometimes customers worry about off-spec supplies or variable purity, which can crash entire production runs. Vendors now employ routine lot testing and offer transparent certificates of analysis. I’ve found that sourcing from reputable suppliers, and keeping open communication about delivery scheduling and storage, goes a long way in heading off headaches.
Synthetic environments demand attention to safety, and anyone who has spent time around strong reducing agents recognizes the importance of clear protocols. Hydroxylamine hydrochloride, though less hazardous than many peers, calls for proper gloves, goggles, and ventilation. In my work, straightforward training sessions and visible signage in workspaces cut down on avoidable accidents and improved team comfort. Spills respond quickly to common neutralization measures, and standard clean-up kits handle most incidents without specialist intervention.
Beyond personal safety, facility operators have learned the importance of keeping good records. Tracking use, lot numbers, and expiration dates keeps mistakes at bay, especially during regulatory inspections or audits. Simple strategies—marked containers, disciplined shelf rotations, monthly inventory reviews—have saved time and curbed waste for teams I’ve managed.
Environmental impact stands as a pressing topic across every corner of chemical manufacturing. Hydroxylamine hydrochloride supports cleaner processes, since its reaction byproducts (mainly salts and water) tend to be mild compared to some organic reductants that give off harmful solvents or nitrogenous gases. Years back, while evaluating waste profiles for a specialty chemicals client, this difference translated directly into lower treatment costs and easier compliance with local regulations.
Production steps that once relied on metal catalysts or toxic reagents now find viable alternatives through hydroxylamine derivatives. This shift doesn’t just help with regulatory targets; it helps protect workers and nearby communities. In agricultural chemistry, safer alternatives matter because end-users frequently handle products in open fields with little more than gloves and face shields. By using hydroxylamine hydrochloride as a key intermediate, the safety profile of many herbicides and pesticides has improved over the years.
Working alongside research faculty, I’ve seen the firepower of this product in developing new synthetic routes for niche pharmaceuticals. Chemists routinely seek consistency, specificity, and a solid track record of reliability. Hydroxylamine hydrochloride enables transformations in heterocycle synthesis and amino acid modification that often stump alternatives. Its gentle action supports complicated multi-step reactions, where many cheap reductants would derail the entire process or introduce an unmanageable impurity load.
Research teams appreciate that you can often recover high yields without elaborate post-reaction treatments. Whether preparing oximes from aldehydes or selectively reducing nitro groups, lab workers spend less time on purification, translating into faster project delivery and less stress during deadline crunches. In collaborative settings, where multiple graduate students or postdocs work with shared chemical stocks, the general safety and reliability of hydroxylamine hydrochloride make it a preferred choice.
Hydroxylamine hydrochloride doesn’t stick to a single sector. Pharmaceutical teams, paint manufacturers, rubber processors, and even electronics firms all find uses for this compound. This broad utility makes it a staple on stocking lists. Time after time, I’ve seen teams new to its potential discover novel applications after talking to colleagues at trade shows or technical conferences.
A paint chemist struggling to stabilize pigments against fading might work alongside a polymer engineer seeking new cross-linking methods. Both draw on the same product, adapting concentrations and process steps for very different outcomes. In a world where raw material costs and product lifecycles face ever-tighter scrutiny, having a single compound that covers so much ground puts companies on stronger footing.
Teaching the next generation of chemists and engineers means introducing products that model responsible use and reliability. Hydroxylamine hydrochloride serves as a good test case. Undergraduate labs everywhere use it while learning about reduction, functional group transformations, and reaction kinetics. I recall guiding students through experiments involving this reagent, where clarity and reproducibility built confidence for more advanced work.
In vocational training centers, instructors lean on it because students can observe clean, visual results without a high risk of runaway reactions. These early experiences shape habits, and, in my own training, starting with predictable compounds like hydroxylamine hydrochloride gave me room to master technique before venturing into more hazardous territory.
Sustainability in manufacturing no longer stands as a “nice to have” but as a core demand from regulators and purchasers alike. Hydroxylamine hydrochloride offers one path toward greener chemistry. Production routes for specialty chemicals often used to rely on metal-heavy reagents with complex disposal needs. Now, teams turn to this compound for its ease of use and straightforward downstream treatment.
Discussions in environmental working groups frequently circle back to the impact of intermediates and byproducts. Switching to processes that leave benign residual salts or water-soluble side products, instead of stubborn heavy metals or solvent residues, reshapes waste management challenges. These shifts reduce environmental risk, lower compliance costs, and help companies hit sustainability benchmarks that would be out of reach with last-generation reducing agents.
No single product solves every laboratory or industrial need, but regular use of hydroxylamine hydrochloride offers an instructive example of how thoughtful selection matters. Evaluating options from both a technical and human perspective—focusing on ease of use, safety, environmental footprint, and workflow integration—shapes better choices for long-term success.
Over decades in chemical operations, seeing a reagent prove itself across unexpected applications underscores its versatility and importance. Teams that support robust, practical training find fewer missteps, reduced waste, and more consistent output. Those lessons resonate across the workforce, shaping a culture where safety, efficiency, and stewardship walk hand in hand.
Procurement teams and technical buyers take real risks when considering new or little-known reagents. For those weighing their options, I often recommend a small trial run under controlled conditions. Start by reviewing recent literature, talking to colleagues in allied industries, and working with suppliers who can deliver both technical detail and reliable batch documentation. If uncertainties arise during pilot batches, reach out to vendors, as many have technical teams who welcome field reports and offer troubleshooting advice.
In working groups and project kickoffs, transparency about planned use and storage can avoid headaches. Facilities planners and safety coordinators should brief end users on safe handling, storage practices, and emergency procedures. Strong supplier relationships support smoother projects, and investments in worker training nearly always pay off—avoiding process interruptions, product loss, and unplanned downtime.
Waste handling and spill planning come next. Whether a facility features in-house treatment or uses contracted disposal firms, looping in environmental specialists early ensures good practices from the start. By tracking yields and quality closely, and pushing for continuous feedback from the production floor, most teams can sidestep surprises that might undermine expensive development projects.
The field won’t stand still. Trends such as precision medicine, advanced electronics, and cleaner agriculture all bring unique chemical requirements. Products like hydroxylamine hydrochloride, with their track record and manageable risk profile, find themselves at the center of ongoing innovation. In research grants and patent filings, new uses surface every year, sometimes in directions that surprise even veterans.
Building on these experiences, it becomes clear that trusted products matter, not just for baseline performance, but as building blocks for smarter, greener, and more sustainable industry. Teams that foster a culture of learning, routine evaluation, and open communication with suppliers keep their competitive edge sharp.
Thinking back across the years, I appreciate how certain chemical products become touchstones for progress in the lab and factory. Hydroxylamine hydrochloride, with its steady performance, provides that sense of trust and predictability. It’s rare to see complaints about lot inconsistency or surprise contaminants—a testament to the care that chemists and suppliers alike bring to its production and delivery.
In a world where a botched reaction can mean lost revenue, delayed projects, or regulatory headaches, picking the right tools makes all the difference. Hydroxylamine hydrochloride doesn’t win every contest for raw power or speed, but it wins with its solid track record, broad utility, and reduced risks. Over time, these factors add up, delivering real value and supporting teams in both day-to-day work and long-term innovation.
In chemical manufacturing and research, no decision stands alone. Every product on the shelf holds lessons from years of use, both in what works and what doesn’t. Hydroxylamine hydrochloride continues to earn its place because it cuts through the noise—offering predictable performance, adaptable applications, and well-understood safety and environmental profiles. Those benefits flow to workers, project leaders, and entire industries as they move toward smarter, more sustainable operations. The conversations and problem-solving that unfold around a product like this echo across every sector that values quality and responsibility.