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HS Code |
936125 |
| Cas Number | 624-91-9 |
| Molecular Formula | C2H6N2O2 |
| Molecular Weight | 90.08 g/mol |
| Iupac Name | methyl carbazate |
| Synonyms | Carbohydrazic acid methyl ester; Hydrazinecarboxylic acid methyl ester |
| Appearance | White to off-white crystalline solid |
| Melting Point | 52-55 °C |
| Boiling Point | 191 °C at 760 mmHg |
| Solubility In Water | Soluble |
| Density | 1.165 g/cm³ |
| Flash Point | 77.8 °C |
| Pubchem Cid | 11876 |
As an accredited Methyl Carbazate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methyl Carbazate is supplied in a 100-gram amber glass bottle, tightly sealed with a screw cap and labeled with safety precautions. |
| Shipping | Methyl Carbazate should be shipped in tightly sealed containers, protected from moisture and stored at room temperature. Ensure appropriate labeling for hazardous chemicals. Transport according to local, national, and international regulations, typically under UN number 2811 (Toxic solid, organic, n.o.s.), and avoid exposure to heat, sparks, or incompatible substances. |
| Storage | Methyl Carbazate should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect it from moisture, heat, and direct sunlight. Ensure proper labeling and keep it away from sources of ignition. Use appropriate personal protective equipment when handling and transferring the material. |
Applications of Methyl Carbazate in Industrial ManufacturingMethyl Carbazate serves as a pivotal intermediate in several high-precision industrial segments, primarily supporting active downstream sectors such as pharmaceutical APIs, agrochemical synthesis, polymer additives, and dyestuff manufacturing. As a direct manufacturer, we ensure each application leverages the unique chemical properties of this material to optimize output quality and consistency, meeting strict industry requirements for formulation and traceability. 1. Pharmaceutical API Intermediate SynthesisPharmaceutical manufacturers utilize Methyl Carbazate as a vital building block in the synthesis of hydrazine-derived active pharmaceutical ingredients (APIs), such as anti-tuberculosis agents and selective cytostatic drugs. Its reactivity enables selective formation of key hydrazide and semicarbazone structures, supporting controlled molecular modifications in multi-step synthetic routes. Compliance with pharmacopeial and ICH guidelines is mandatory to meet drug safety and purity benchmarks in regulated markets. Industry compliance standards
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2. Agrochemical Active Ingredient ManufacturingProducers of crop protection chemicals employ Methyl Carbazate for constructing hydrazide motifs and heterocyclic nuclei within selective herbicides, fungicides, and plant growth regulators. Its controlled reactivity supports regioselective ring closures and key substitutions, reducing byproduct generation and process impurities in agrochemical technical grade batches. Compliance with global regulatory and safety requirements tightly governs raw material sourcing and process control in this sector. Industry compliance standards
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3. Polymeric Additive and Crosslinker SynthesisSpecialty polymer and resin producers use Methyl Carbazate to introduce functional hydrazide groups, facilitating chain extension or crosslinking in adhesive, coating, and engineered plastic formulations. The compound’s controlled nucleophilicity enables precise molecular weights and crosslink densities, enhancing downstream product durability and performance under rigorous industrial application cycles. Regulatory oversight focuses on trace additivation and product consistency. Industry compliance standards
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4. Dyestuff Intermediate ProductionDye and pigment plants apply Methyl Carbazate in the synthesis of azo and hydrazone dye intermediates, where its amine functionality drives high-yield coupling and facilitates precise chromophore orientation within multi-step reaction cascades. Robust procedure controls and raw material qualification support the color strength and fastness properties mandated for advanced textile and ink formulations in regulated global supply chains. Industry compliance standards
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Working on the production line for methyl carbazate, I’ve handled each run with the sort of care only the plant floor reminds you to respect. The substance may look like a simple crystalline powder, but subtle differences in its purity can make or break an entire shipment. Having contributed to thousands of kilograms since our first campaign, my experience has taught me what sets reliable methyl carbazate apart, both for pharmaceutical synthesis and research-scale use. There’s no room for shortcuts when every gram can impact a downstream process or a validated method in the lab.
Our operations depend on routine, sure, but delivering methyl carbazate is not about just following recipes. I stand by the reality that trace impurities—hydrazine derivatives, for example, or residual solvents—can change reaction profiles where methyl carbazate plays a role. Over the years, our teams have put focus on optimizing both reaction yield and downstream washing. We work hard to achieve a crystalline product with minimal residual contaminants, supporting the confidence of chemists scaling up new projects.
In contract synthesis, I have seen how a change in reagent purity can delay a multi-step reaction sequence. With methyl carbazate, used often to form hydrazones and other intermediates, repeatability is crucial. Scientists, especially in drug development, prefer material that lends itself to the same reactivity profile from batch to batch. The shift of only 0.5% in moisture or purity isn’t a footnote—on a molar scale, that variation can waste days of work and force recalibrations. Our process engineers have paid close attention to how minor adjustments, even in temperature or mixing rates, show up later in the final analysis—purity, melting point, or appearance.
I’ve spoken directly with customers scaling from pilot batches to bulk production. Their own problems—unwanted side reactions, poor crystallization, solubility shifts—often start with inconsistencies at the reagent level. Methyl carbazate does not forgive careless production—it absorbs water, picks up byproducts, and creates headaches when handled without proper controls. We prioritize strict environmental management and sealed packaging, especially in humid conditions, to make sure every drum meets the demands of real-world processes.
Manufacturing runs start with careful handling of hydrazine and methyl chloroformate. Each step is managed under controlled conditions, tanks vented carefully, and the operator’s vigilance decides the yield as much as the chemistry. What looks straightforward on a block diagram never unfolds without surprises. We’ve faced reactor fouling, off-gassing events, and batch variability, each teaching us to refine our protocol. Solvent choice for extraction isn’t fixed—lab data is one thing, plant-scale consistency is another. We keep solvent residues minimal by enforcing extra vacuum stages and double-checking each filtration.
Our analytical team reviews every batch by HPLC and IR spectroscopy, checking for hydrazine traces and ensuring the methyl carbazate sits within a tight melting point window. Reproducibility means more than passing a technical spec—it means engineers and chemists at the customer site won’t call back with complaints about cloudiness, solubility issues, or unexpected reactivity. We label every drum with lot-specific analytical data, reflecting the transparency required by modern R&D clients.
The most common grade we supply contains a minimum 98% purity by HPLC, with water content below 0.5%. The solid remains stable when protected from moisture, presenting as off-white or colorless crystals. Our scale runs from 25-kilogram drums to multi-ton shipments, with packaging designed to hold up through long-haul logistics—custom liners and nitrogen-flushed bags, minimizing hydrolysis during transit.
Some customers request higher specifications for more sensitive applications, especially those synthesizing pharmaceuticals. For these, we generate custom lots with even tighter controls on trace metals and residual solvents, often verified by both internal and third-party testing for cGMP compliance. I have seen the difference when a smaller R&D lab needs just a few kilograms; they look for the same transparency in process and analytical data as a multinational would demand.
We don’t run methyl carbazate to a generic formula. Over time, we’ve established in-line monitoring points for critical reaction stages. Color changes and exotherm rates tell us when to slow down or pause for troubleshooting. In my experience, struggling with condensation and foaming can cost a full day of production—and it always pays to keep an eye on pH and pressure swings before committing the whole reactor volume. Our team documents observations and lessons learned from every campaign, feeding experience back into future runs.
Methyl carbazate often gets compared to ethyl carbazate or hydrazine derivatives by scientists searching for the right reagent for condensation reactions or as intermediate in semicarbazide synthesis. From the manufacturing side, I see that the choice affects both safety and process options. Hydrazine hydrate is more hazardous, requiring tighter containment and extra scrutiny on air quality and personal protective equipment. Ethyl carbazate’s volatility and storage needs differ from methyl carbazate’s—bulk methyl carbazate, while sensitive, tolerates cold chain breaks a little better if humidity is controlled.
Solubility profiles stand out as the main operational difference in process development. Methyl carbazate dissolves in water and common polar solvents, lending itself to concise isolation steps. Some reactions may exploit ethyl carbazate for specific reactivity or less aggressive hydrazine donors, but methyl carbazate offers a balance between reaction rate and downstream purification ease. I have watched chemists rerun reactions just to gain a few percent yield improvement when switching between homologs. Handling and storage are more forgiving with our packaging setup, assuming the storage area isn’t exposed to tropical humidity.
When working with methyl carbazate, staff instinctively double-seal every container between operations. Even brief exposure to air on a rainy day leads to visible clumping. Less hygroscopic alternatives exist, but they lack the nucleophilicity and ease of derivatization that pharmaceutical chemists depend on. We have tested samples side-by-side with both older and new suppliers; differences in flowability, apparent purity, and odor become obvious in repeated handling. For scaling up to hundreds of kilograms per month, methyl carbazate as we produce it avoids unwanted side products seen in some cheaper alternatives partly because we strictly control the raw input quality and reaction parameters.
My role as a manufacturer lets me witness methyl carbazate’s journey from a simple bottle to playing a major role in drug synthesis and agrochemical development. Customers use our material most frequently in the preparation of heterocyclic compounds, azines, and diverse hydrazones, especially where precise control over reaction partners is necessary. One major use involves forming intermediate structures for beta-lactam antibiotics, benefiting from the cleaner reaction profile our material provides.
Peptide research labs regularly request our high-purity methyl carbazate for use in blocking steps and derivatization, preferring it over similar reagents for speed and reliability. Some industrial coatings and colorant manufacturers rely on the clean reactivity of methyl carbazate to provide sharp, reproducible hues and coatings properties. In each case, they report improved batch timelines and fewer purification headaches, especially when they migrate away from technical grade competitors.
Looking at the broader industry, pharmaceutical and specialty chemical companies often can’t afford delays or failures caused by hidden impurities or moisture uptake. We’ve configured our operations to guarantee supply dependability, working with logistics partners to keep transit times short and storage conditions optimal all year round. Our best feedback comes from new customers returning after trial runs, credited to this consistent reliability in both product and support.
Manufacturing methyl carbazate means keeping a sharp focus on staff safety and risk control. Hydrazine components pose direct hazards, and reaction intermediates need careful containment. We run regular worker safety training, emphasizing process ventilation, personal exposure limits, and emergency procedures. Factory automation and real-time gas monitors might sound routine, but they reflect lived lessons from near-misses and unexpected incidents in high-volume runs.
Our commitment to safety doesn’t stop at the plant gate. Customers receive detailed documentation for safe storage, handling, and spills, with experienced technical staff ready for troubleshooting. Strict container selection and robust labeling minimize the risk of mix-ups in busy warehouses. While methyl carbazate itself isn’t the highest hazard on the floor, I’ve seen careless handling elsewhere turn minor product issues into production stoppages. The stability of the product depends on following those experience-backed guidelines from point of shipment to the last gram in the lab.
Feedback from end users, whether synthetic chemists or production managers, pushes us to review and refine both our production methods and quality system. I’ve seen firsthand how small process improvements—temperature ramp adjustments, tighter nitrogen control, better drying—translate into clearer crystals and easier downstream purification. Before each major production campaign, process engineers review past data and incident reports, deciding on adjustments to maximize both safety and yield.
We back each shipment with application support. Occasionally, customers experimenting with new synthetic routes find an unanticipated side reaction or purification snag. We maintain direct communication channels between our technical specialists and user labs, troubleshooting procedures and sharing data. In some cases, the relationship grows from one-off shipments to long-term partnerships, especially as customers appreciate our willingness to modify package sizes or specifications on request.
I’ve seen the questions come in—can methyl carbazate be diluted, recrystallized, or stored long-term? Through ongoing trials and real-world feedback, we know that vacuum-sealed and dry storage extends shelf life and upholds performance. Sharing these insights saves downstream users cost and waste, as well as lost time on resynthesis.
Supply chain disruptions, especially in recent years, showed us how unexpected shortages hurt both small and large clients. We diversified raw material sourcing to keep up with changing global logistics, establishing secondary supply lines for hydrazine bases and buffering solvents. Backups are not optional in a market where every customer plans months in advance.
Regulatory shifts add one more layer to our responsibilities. Both local and international regulations control certain raw materials and require thorough end-use declarations. We work with compliance teams and legal advisors to keep shipments legal and documentation current. This compliance focus isn't just to tick boxes—it earns trust from R&D and QA teams who need verifiable, traceable sourcing information for audit trails.
Over two decades, I’ve seen emerging uses for methyl carbazate in fields like energetic materials and specialty polymers. Researchers regularly test modifications of standard protocols, requiring samples from several runs or custom variants with higher purity standards. Because we act as both producer and direct technical resource, customers rely on our accumulated experience in troubleshooting and method adjustment.
Our improvements keep pace with these evolving demands. Adding new analytical instruments, refining our synthetic pathway, and investing in operator skill development mark our continuous road toward tighter controls and more sustainable production practices. We engage with customer feedback through site visits, technical calls, and periodic quality audits. Open discussion uncovers hidden inefficiencies and raises the standard across each product lot.
Manufacturing methyl carbazate isn’t simply a matter of running the same reaction cycle year after year. The demands of the industry change: new impurity profiles crop up as processes evolve, and global quality standards grow stricter with each decade. I find that our flexibility, both in process and attitude, lets us improve quality while maintaining competitive supply. Our teams pull from hands-on encounters—what works at 10 grams needs real-world adjustment at a 5-ton scale.
In today’s environment, reliability and transparency secure customer loyalty. Those who use methyl carbazate in their research or product development want to know their supplier stands behind each shipment. Speaking on behalf of the staff on the production floor, we share the same commitment: we review every step, every ounce, and every data sheet with one goal—making your work easier, faster, and more reliable.
Our open-door approach fostered long-term relationships with research institutions, pharmaceutical developers, and industrial manufacturers. Having worked through countless production runs and witnessed the diversity of end uses, I bring a personal commitment to quality that no spec sheet or third-party audit can fully communicate.
Years on the plant floor and at the quality bench have taught me an important lesson: attention to detail, pride in your craft, and a customer-first mindset shape every gram of methyl carbazate that leaves our doors. It’s an approach that keeps us improving—batch by batch, campaign after campaign—to meet the changing landscape of global science and industry.