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HS Code |
824511 |
| Product Name | 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate |
| Chemical Formula | C7H12N2O5S |
| Molecular Weight | 252.25 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Purity | Typically ≥98% |
| Cas Number | 934682-77-6 |
| Solubility In Water | Miscible |
| Boiling Point | Decomposes before boiling |
| Density | Approximately 1.3 g/cm³ (at 25°C) |
| Ph Value | Acidic (usually around 1-2 for a 1M solution) |
| Storage Conditions | Store at room temperature in a tightly closed container |
| Synonyms | CMIM HSO4, Carboxymethylmethylimidazolium hydrogensulfate |
| Hazard Statements | Causes skin and eye irritation |
As an accredited 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate packaged in a sealed, amber glass bottle with tamper-evident cap and safety label. |
| Shipping | 1-Carboxymethyl-3-methylimidazolium hydrogensulfate is shipped in tightly sealed, chemically resistant containers to prevent moisture ingress and contamination. It should be packed according to relevant chemical transport regulations, labeled appropriately, and handled with care. Avoid extreme temperatures during transit, and ensure compatibility with packaging materials to ensure safety and stability. |
| Storage | 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Protect from moisture and direct sunlight. Ensure proper labeling and prevent contamination. Use secondary containment to prevent spills and store at room temperature or as specified by the manufacturer or Safety Data Sheet (SDS). |
Applications of 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate in Industrial ManufacturingAs the direct manufacturer of 1-Carboxymethyl-3-Methylimidazolium Hydrogensulfate, we support B2B customers in genuine, evidenced chemical market sectors using this ionic liquid for advanced process intensification, catalysis, and separation. The application pathways below reflect current, traceable downstream usage based on established industrial standards and technical practice. 1. Cellulose Dissolution and Fiber SpinningThis ionic liquid is recognized for its high polarity and strong hydrogen bonding interaction with polysaccharides, making it a specialized solvent in cellulose dissolution and regenerative fiber manufacturing. Manufacturers utilize it to dissolve pulp prior to wet spinning operations, offering an alternative pathway to traditional viscose or Lyocell processes, and enabling the production of fibers with controlled properties. Tight control of formulation and operational parameters is essential for quality and compliance. Industry compliance standards
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2. Acidic Catalysis in Esterification and TransesterificationOwing to its hydrogensulfate anion, this ionic liquid serves as a strong Brønsted acid catalyst for esterification and transesterification reactions in oleochemical and specialty chemical manufacturing. Its thermal stability and negligible vapor pressure allow repeated cycling in batch and continuous reactors, providing reaction rate enhancement and easy phase separation in post-reaction workup, especially in the synthesis of plasticizers and specialty esters from bio-based feedstocks. Industry compliance standards
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3. Acidic Extraction Agent for Rare Earth Element ProcessingIts strong acidity and ionic character equip this raw material as a selective extraction and stripping agent in hydrometallurgical processes for rare earth element (REE) separation. Process engineers deploy it in liquid-liquid extraction circuits to enhance partitioning of rare earth cations from leach solutions, improving efficiency and selectivity during metal purification for high-tech applications. Industry compliance standards
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4. Ionic Conducting Additive in Electrolyte FormulationsProcess chemists leverage the unique cation-anion structure of this ionic liquid as an ionic conductivity enhancer and acid-stable additive in liquid electrolyte systems for energy storage applications. It is incorporated to stabilize proton conductivity, increase electrolyte operating temperature range, and enhance lifespan for downstream electrochemical manufacturing of devices such as high-temperature proton exchange membrane (PEM) electrolyzers and specialized capacitors. Industry compliance standards
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5. Acidic Pretreatment Medium for Biomass HydrolysisIndustrial biorefinery operations utilize the high acidity and stability of this ionic liquid to pretreat lignocellulosic biomass for enhanced enzymatic hydrolysis. It efficiently disrupts lignin-carbohydrate and hemicellulose matrices, leading to increased yield of fermentable sugars in downstream saccharification, crucial for bioethanol plants and bioproduct manufacturing. Extensive process validation ensures compatibility with enzyme cocktails and minimum inhibitor formation. Industry compliance standards
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The world of chemistry rarely stands still. New challenges arise in refining, synthesis, extraction, and catalysis every year. Our business has grown by listening to these demands, not by selling what’s easy but by producing solutions with a purpose. 1-Carboxymethyl-3-methylimidazolium hydrogensulfate isn’t just another ionic liquid, but one developed from lessons learned over years on the production line, in pilot plants, and during upscaling trials. We introduced this compound because routine work with more common ionic liquids exposed their limits in both solvency and stability. One can experiment in a lab all day, but unless you see the strains of real-world production—pumps getting clogged, side-reactions raising costs, purity suffering because of water sensitivity—it’s hard to design for tough conditions. This ionic liquid’s story began there.
Chemists in our R&D set out to tweak the imidazolium core, aiming to strike a balance between hydrophilic and hydrophobic behavior. The carboxymethyl group altered the solubility profile, bringing higher tolerance to water and polar solvents. Meanwhile, the hydrogensulfate component boosted thermal resilience and minimized unwanted volatility. In pilot runs, the true value appeared: better process safety, reduced material losses, and fewer headaches downstream in distillation columns. It mattered to us that batches ran cleanly, that scaling from kilograms to tonnes didn’t bring nasty surprises, and that colleagues further down the value chain could count on consistent purity without recalibrating instruments every week.
Some say all ionic liquids behave similarly in solvents or catalysis. Our long hours in synthesis work have shown differently. The carboxymethyl-3-methylimidazolium backbone delivers genuine advantages. We found shelf stability to be superior even under conditions where common imidazolium salts break down or leak cations. The hydrogensulfate anion proved less aggressive toward glass and steel—no minor issue if you have to shut down reactors for maintenance because of corrosion. Another real benefit: this material resists oxidation, standing up in oxidative extraction runs where organics and air present real challenges that breakdown weaker structures.
Our lot-to-lot testing focuses on more than just purity and yield. We monitor viscosity, electrical conductivity, and trace metal contamination because these details can make or break an entire process. The unique solubility of our ionic liquid gives more flexibility: it dissolves a wider range of organics than tetramethylammonium-based alternatives while not leaching plasticizers or coloring agents from typical laboratory and industrial hardware. For those in lignin extraction or biomass conversion, its polarity profile splits the difference between hydrophobic ionic liquids (which struggle with crop residue) and fully hydrophilic versions (which swell in humidity).
Demand for greener alternatives in chemical processing isn’t a distant trend. It hits us every time a customer requests lower emissions, non-halogenated alternatives, or safe-by-design substances free from persistent toxics. 1-Carboxymethyl-3-methylimidazolium hydrogensulfate has seen hands-on use in biomass pretreatment, where it dissolves lignocellulosic material for carbohydrate recovery without the nagging waste problems of traditional solvents like DMSO or NMP. Its role in catalysis extends beyond textbook reactions: our pilot partners discovered increases in selectivity when running esterifications and alkylations under mild temperature and pressure.
Academic researchers gravitate toward this ionic liquid because it allows selective solvation for both polar and non-polar compounds. In practice, its ability to shuttle between organic and aqueous phases speeds up extraction lines in flavor, fragrance, and fine chemical settings. On the floor, operators respect its lower volatility compared to the older salts which often led to inhalation risks or dissipation losses. Plants with limited ventilation have found batch operations to run smoother; ventilation systems show a cleaner bill of health after switching away from more volatile organic solvents.
In our own process, we emphasize consistency. The product leaves the reactor in liquid form, nearly colorless, with minimal particulate content. Unreacted precursors get scrubbed out before the final filtration step. Moisture content stays below one percent by weight, thanks to careful vacuum drying and strict storage procedures. Instrumental analysis confirms cation and anion ratios tightly aligned with stoichiometry, sparing downstream users from extra analytical corrections. For customers, this translates to fewer headaches over scale-up or regulatory documentation, since results in the plant match the lab numbers.
We supply the product in HDPE drums and custom totes. Storage remains straightforward at ambient temperatures without special handling, unlike some imidazolium salts prone to hydrolysis or gumming up valve systems. Stability accelerations have confirmed shelf life over two years without measurable loss in reactivity. This isn’t just a number for the paperwork—chemists in our team run old samples head-to-head with fresh ones before every large-lot campaign. Our own workforce relies on predictable, long-term stability; we expect the same from every container shipped out.
The switch from traditional imidazolium chlorides and tetrafluoroborates to 1-carboxymethyl-3-methylimidazolium hydrogensulfate often comes after enough trouble with corrosion or handling volatility. In the field, small differences matter. We’ve watched as glassware etched by aggressive anions springs pinhole leaks; hydrogensulfate, by contrast, works in stainless reactors far longer between maintenance shutdowns. The hydrogensulfate’s weaker oxidizing character brings big savings in both hardware lifetime and the cost of replacing liners or seals.
Handling this product rarely introduces the stickiness and static issues seen with dialkylimidazolium hexafluorophosphates. Processes don’t gum up pump rotors, and mixing tanks stay clean. Customer trials completed in cooperation with university labs showed that our ionic liquid dissolved plant matter more evenly and didn’t brown as quickly, important when color must be controlled for food or pharmaceutical intermediates. Our staff have real memories of patching lines corroded by conventional chlorides; after the switch, days lost to maintenance dropped sharply.
Waste disposal stands out as a concern in chemical manufacture. Chlorinated ionic liquids, so common a decade ago, now bring disposal headaches due to regulatory scrutiny and evolving hazardous waste classification. By selecting a hydrogensulfate-based alternative, our own factory reduced annual hazardous waste barrels—a change not just on the books, but one seen outside, in warehouse floor space freed up, and in fewer accidents during drum loading.
Another reality from the plant floor: energy savings have become vital as natural gas prices swing. Conventional high-melting ionic solids require energy to preheat; our liquid-phase product, with its modest viscosity and robust flow even at ambient, lets us run continuous reactors without heating lines or scraping product out of transfer hoses. In our experience, operators appreciate gear that works on the first attempt, every time.
Our customers span pharmaceutical synthesis, renewable material extraction, and specialty catalyst manufacturing. Product feedback never comes as a neat checklist—it arrives bundled in troubleshooting calls, batch reports, visitor audits, and plant walk-throughs. Over years, we’ve seen the carboxymethyl variant consistently pass muster in applications as different as selective metal recovery and enzyme stabilization. Analytical chemists tell us the ionic liquid forms well-behaved phases with several solvents, which can’t always be said for simpler imidazolium salts.
Some clients run multi-stage separations for agrochemical actives, where out-of-the-box phase compatibility is rare. With our product, operators avoid bottle-necks caused by phase separation lags, which would otherwise require heating and extended mixing—consuming both time and energy. Skeptical quality assurance teams in high-purity syntheses report fewer non-conformities related to trace contaminants, because our internal QA procedures block problematic precursor lots from entering production.
As the regulatory world continues to clamp down on volatile organic compounds, our hydrogensulfate ionic liquid has enabled several plants to clear annual inspections with flying colors. Records show measurable reductions in both hazardous air pollutants and accidental release events since plant-wide adoption. These aren’t just talking points but every-day realities reflected in environmental logs, insurance risk categories, and feedback from inspectors during walk-throughs. Factory teams see tangible improvements, especially when regulations continue to tighten with little warning.
We know chemical manufacturing runs on confidence, not just datasheets. Our decision to produce 1-carboxymethyl-3-methylimidazolium hydrogensulfate grew from experience—troubleshooting pilot runs, investigating residue on reactor walls, logging ambient humidity impacts over entire seasons. Each improvement grew from direct feedback; no one accepts theoretical gains if the product falters on the floor. Steps like redundant filtration or ongoing stability tests aren’t just quality marks, but answers to frustrations faced when other materials failed to deliver. This ionic liquid reflects a commitment: learn from every batch, keep records transparent, and make practical improvements whenever possible.
Over time, our customers and partners turn to 1-carboxymethyl-3-methylimidazolium hydrogensulfate for predictable outcomes and lower costs after full-cycle analyses. In research settings, academics report improved yields and reduced process variability, often with decreased dependency on high-boiling or volatile auxiliaries. From a manufacturing perspective, these wins translate to lowered emissions, less hazardous waste, and easier regulatory compliance—all big factors once a process moves from bench to pilot, or from pilot to full scale.
While trends point toward greater use of ionic liquids, we look past fads and focus on what works in demanding environments. Our plant teams keep an ear out for feedback—whether from large industrial users or smaller, niche operations who grapple with unique process bottlenecks. Batch after batch, we refine cleaning protocols, test different storage containers, and update technical documentation based on direct reports from the field. Direct experience has taught us how small changes in storage temperature, handling, or filtration make a major difference across a year’s production.
We keep growing our understanding of how 1-carboxymethyl-3-methylimidazolium hydrogensulfate performs in emerging sectors, such as battery electrolytes or recyclable-catalyst platforms. Early test results hint at promise, but our approach remains methodical. We don’t chase novelty at the expense of dependability. Production lines need materials that hold up to shifting workloads, sporadic shutdowns, and the realities of real, imperfect equipment. Every innovation we push forward gets stress-tested in our own facility before ever reaching a customer’s order.
Colleagues in supply chain and logistics appreciate the operational wins this ionic liquid brings. Leak-resistant packaging, reduced spill response times, and straightforward disposal protocols add up, saving workhours, cutting insurance costs, and lowering plant downtime. These benefits don’t usually show up in marketing gloss, but plant managers have thanked us for simplified compliance and inventory management. It’s the kind of trust built batch by batch, year by year—not by flashy rollouts but by showing up with solutions that work every time.
We stake our reputation on readiness and honesty. Each improvement in our process—whether a filtration tweak, a bottling routine, or a new container lining—aims to give customers a product that’s not only high-performing but also hassle-free. Years of dealing with common issues—material incompatibility, poor long-term stability, imprecise batch control—have shaped the standards we now keep. Internal metrics focus not only on purity, but on hard-to-quantify factors such as cleanability, transferability, and behavior across different shifts and plant conditions.
We’ve seen operators struggle with ionic liquids that gum up pumps, standardize poorly, or react with trace water in unpredictable ways. These aren’t abstract concerns—they are roadblocks that drive up maintenance costs and cut into output quotas. With 1-carboxymethyl-3-methylimidazolium hydrogensulfate, our promise relies not on what’s possible in perfect lab conditions, but on what holds up under real pressures: twenty-hour runs, fluctuating temperatures, new staff learning on the job, changing regulatory forms.
Working as a direct manufacturer, our team digs into every feedback loop. A single operator’s observation about flow rates can spark changes all the way back through our documentation and batch control. This openness to user feedback has kept our product line relevant and practical across sectors. We don’t lean on buzzwords—to us, results mean time saved on maintenance, cleaner product outflow, and fewer headaches for both staff and leadership.
We see chemicals not just as lines on a balance sheet, but as solutions to tangible process headaches. The development and ongoing production of 1-carboxymethyl-3-methylimidazolium hydrogensulfate reflects the real priorities we’ve heard over years: clean process flow, strong stability, easy handling, low impact on hardware, and regulatory adaptability for tomorrow’s legal landscape.
By grounding our work in steady, fact-backed practice—not just trend-chasing or theoretical optimization—we equip our customers and industry partners with a material that genuinely improves daily operations. From careful production checks to hands-on problem-solving, every task links back to a single goal: making the next batch as reliable and effective as the last.
Our team remains committed to full transparency, realistic advice, and ongoing support. That’s the value we see in chemical manufacturing—solutions built on lived experience, tested and proven on real production lines. 1-Carboxymethyl-3-methylimidazolium hydrogensulfate is more than a specialty chemical; it’s the result of hard work and continual adjustment to real industry needs.