| HS Code | 811553 |
| Cas Number | 540-73-8 |
| Molecular Formula | C2H8N2 |
| Molar Mass | 60.10 g/mol |
| Iupac Name | 1,2-Dimethylhydrazine |
| Appearance | Colorless liquid |
| Boiling Point | 87°C |
| Melting Point | -9°C |
| Density | 0.832 g/cm³ at 20°C |
| Solubility In Water | Miscible |
| Flash Point | 10°C (closed cup) |
| Vapor Pressure | 38 mmHg at 25°C |
| Odor | Ammonia-like |
| Synonyms | Sym-Dimethylhydrazine, SDMH |
As an accredited 1,2-Dimethylhydrazine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1,2-Dimethylhydrazine is supplied in a 100 mL amber glass bottle, tightly sealed, with hazard and handling labels clearly displayed. |
| Shipping | 1,2-Dimethylhydrazine is shipped as a hazardous material, typically in tightly sealed containers under cool, ventilated conditions. It is classified as a toxic, flammable liquid, requiring labeling and handling compliant with international transport regulations. Proper protective measures and emergency procedures must be in place during shipping to prevent leaks, exposure, or accidents. |
| Storage | 1,2-Dimethylhydrazine should be stored in a tightly sealed container, away from light, heat sources, and incompatible materials like oxidizers and acids. Keep it in a cool, well-ventilated, and secure area specifically designated for toxic and carcinogenic compounds. Use secondary containment to prevent spills, and ensure proper labeling to minimize the risk of accidental exposure or environmental release. |
Competitive 1,2-Dimethylhydrazine prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Our years of working directly in chemical manufacturing have taught us to recognize the difference between a specialty reagent and a raw commodity. 1,2-Dimethylhydrazine, with its CAS number 540-73-8, stands out in the hydrazine family due to its molecular formula C2H8N2. In daily operations, we encounter plenty of substances that promise versatility, but this compound carves out its own niche in both research and high-stakes industrial synthesis. While larger-volume molecules draw headlines in the fuel and agricultural segments, 1,2-dimethylhydrazine shows its value in scientific fields that demand precision and reliability.
Over the years, handling this compound has become a routine for our production teams. In our manufacturing plant, we deliver 1,2-dimethylhydrazine with a narrow specification that meets the rigorous demands of professional users. Our current lot typically holds purity above 98%, backed by strict gas chromatography analysis conducted during every production batch. The product appears as a clear, colorless to pale yellow liquid with a sharp, fish-like odor — unmistakable in any laboratory.
Skeptics might wonder why this molecule deserves such attention. The answer comes from the applications. 1,2-dimethylhydrazine is more than just a building block. It’s a crucial alkylating agent in organic synthesis. Its most notable use is in biomedical research, especially in cancer studies as a chemical model for colon carcinogenesis. Researchers count on this compound for its reproducible biological effects, helping them uncover valuable data in experimental oncology. By offering a reliable product, we facilitate studies that shape the next generation of medical treatments.
Performance and purity are only part of the story. Our manufacturing process keeps strict controls on environmental release and worker safety. Having handled hydrazines for decades, our plant’s engineers understand the health risks tied to these chemicals. Continuous monitoring for vapor leaks, process automation, and regular training form the backbone of our daily operations, supporting a work culture that prioritizes minimizing exposure and loss during transfer and packaging. Whether drawing from bulk tanks or filling laboratory bottles, our staff knows the importance of accuracy, speed, and uncompromising technique.
Some might assume all hydrazines look and behave the same. Our experience says otherwise. Hydrazine itself remains well-known as a rocket propellant and oxygen scavenger, but it is highly reactive and often finds limited use outside specific, controlled settings. Unsymmetrical dimethylhydrazine (UDMH) gets a fair share of attention in aerospace applications due to its performance in rocket fuels. 1,2-dimethylhydrazine, on the other hand, steps into fields that prioritize chemical reactivity for research instead of energy density for propulsion. The dimethyl substitution pattern alters its reactivity, volatility, and selectivity significantly. Compared to hydrazine hydrate or mono-methylhydrazine, our product offers higher alkylating power and sees use in a tighter circle of advanced applications.
In synthetic chemistry, the difference becomes clear. The two methyl groups on the hydrazine core fundamentally affect the reaction pathway, by steering selectivity and altering both nucleophilicity and toxicity profiles. Process chemists working with us often report that their synthetic schemes depend heavily on these small differences. With 1,2-dimethylhydrazine, yields and product quality in certain transformations can surpass what’s possible with less substituted hydrazines or alternative alkyl donors. Researchers rely on us not just to make the compound, but to ensure each drum or flask arrives with the same physical and chemical characteristics as the last batch.
Volume and logistics also set us apart from traders or laboratories that resell repackaged chemicals. Our packaging lines are built for performance, allowing us to fill both small scientific bottles and industrial drums. Each vessel undergoes pre-cleaning and inert gas purging, sharply reducing the risk of contamination. Using our own dedicated tank farms prevents cross-contamination with other specialty amines or oxidizable reagents. Tracking every lot as it enters and leaves our warehouse gives our technical staff and the customer complete chain-of-custody confidence. It’s not enough to fill an order — we’ve learned customers value the ability to trace every shipment from raw material sourcing to certification and final delivery.
Downstream, the number of steps between producer and end-user matters. With certain unstable reagents, extended shipping chains can introduce risks and degrade material integrity. Direct shipment from the manufacturer reduces intermediate handling, keeps quality at its peak, and minimizes the chance of exposure to sporadic temperature or pressure swings. We routinely work with international research institutes as well as regional users. By retaining inventory close to the final customer, we support rapid delivery in regions with robust regulatory requirements.
Those who use 1,2-dimethylhydrazine in the laboratory know its hazards run deeper than a glance at its structure might suggest. Having operated our hydrazine lines for multiple product generations, we approach its toxicity and volatility with respect, not fear. Its low flash point and strong odor serve as an instant reminder to uphold protocols. For our operations, that means closed-handling systems, local exhaust ventilation, double-walled containers, and personal protective equipment tuned to the risks at hand.
Our staff receive medical surveillance and regular occupational health checkups, an approach driven not only by regulations but by the simple fact that our operation depends on healthy, experienced hands. Any sign of vapor release triggers immediate response — alarms, evacuation drills, and post-event reviews. These procedures didn’t appear overnight. They grew out of near-miss stories and regular engagement with safety improvements, especially after new research redefined exposure limits for volatile organics.
Customers demand documentation, but they often phone us directly to discuss handling, waste management, and compatibility with their own facilities. Our technical support team spends hours every month building custom recommendations based on lab layouts, fume hood specifications, or local solvent recovery setups. Sometimes the right answer is a tweak to a transfer protocol or a different gasket material. Other times, customers need to change storage temperatures or layout to reduce personnel exposure. Experience shows that no two facilities treat 1,2-dimethylhydrazine exactly the same way.
Hazard management isn’t only about workplace safety — it influences downstream disposal and compliance. Direct communication with customers reveals the challenges they face with solvent disposal, emission limits, and regulatory reporting. By providing transparent data about batch impurities, vapor pressure, and stability, we cut paperwork stress and help users anticipate question marks from their own auditors. Our quality control team works closely with environmental engineers to innovate safer packaging and leak-proof labeling.
In the past, many hydrazine derivatives entered the market with scant attention to trace impurities or shipping-induced degradation. Our plant responded by investing in closed-loop batch reactors, in-line purity sensors, and advanced trace analysis techniques. The payoff? Consistent quality from start to finish, and data packages that let customers file regulatory applications without chasing missing certificates months after receipt.
Some buyers judge a producer solely by price or by their presence on distributor lists. Yet our chemical trades have shown the greatest value comes from relationships, not just transactions. We continually update our staff with the latest toxicological and regulatory information. Our team sits on global standards boards, providing real-world manufacturing perspectives on new material safety data and exposure limits. Customers receive not only a bottle of liquid reagent but also years of embedded manufacturing experience and a commitment to their application’s long-term success.
From our end, scale means more than the ability to turn out large lots. We’ve refined processing steps to cut energy consumption, lower waste byproducts, and shrink our carbon footprint. For years, hydrazine derivatives faced scrutiny due to their persistence and environmental impacts. We tackle these concerns head-on by integrating real-time monitoring, green chemistry principles, and waste reduction at every stage. Both international and domestic environmental standards keep tightening, but our operations adapt faster than regulation alone can drive.
Reliable supply matters just as much as regulatory compliance. Storms, border checks, and raw material swings threaten just-in-time manufacturing strategies — we have developed resilient logistics so that researchers don’t lose valuable sample prep or production time waiting for a shipment that may or may not make it past customs. By owning our production and storage, we create transparent lead times and emergency fill options unavailable to remote traders or intermediary handlers.
Ask any chemist who has handled both symmetrical and unsymmetrical dimethylhydrazines: properties diverge sharply. Our 1,2-dimethylhydrazine, with the two methyl groups attached at adjacent nitrogen atoms, carries a distinct risk profile and reactivity compared to mono-methylhydrazine or UDMH. The symmetrical structure leads to predictable physical behavior and stability, whereas unsymmetrical analogs offer different boiling points, volatility ranges, and in some cases, toxicological impacts. This matters not only for storage and shipping, but for the end-use applications — our product stands out for its controlled reactivity in research contexts, while UDMH serves primarily as a propellant in space and defense sectors.
Regulatory frameworks also draw stark boundaries between these molecules. 1,2-dimethylhydrazine, given its use in biomedical research, must meet extra expectations for impurity levels not always demanded for technical-grade UDMH or mono-methylhydrazine. Through repeated audits and certifications, we prove our material meets or exceeds the strictest global limits for trace hydrazines, amines, and heavy metals — a process demanding extensive batch documentation and facility transparency. Customers researching chemical carcinogenesis often ask for toxicology support and impurity profiles tailored to their models. We are equipped to respond in detail, drawing on years of directly comparable production history.
From a technical angle, storage and long-term stability relate closely to the substitution pattern on the hydrazine ring. Our experience shows that 1,2-dimethylhydrazine, if sealed and shielded from light, holds up well under both ambient and low-temperature conditions. Unsymmetrical dimethylhydrazine can sometimes show more rapid volatility losses or form unwanted degradation products if improperly stored. Years of feedback from customers and in-house tests guide our recommendations for shipment and on-site use, helping to avoid product loss and accident risk.
It’s common for new users to ask why a synthesis can’t simply swap in another hydrazine or methylating agent. Having run parallel pilot-scale reactions with several related compounds, our R&D team has observed first-hand where performance starts to diverge. Different hydrazines yield unique selectivity profiles, intermediates, and byproduct traces — results that can make or break a medicinal chemistry campaign or a materials project. We regularly supply material to side-by-side comparison studies, supporting customers as they decide which molecule best suits their experimental demands. Feedback often circles back to tell us that only pure 1,2-dimethylhydrazine hit the mark for reproducibility, yield, or safety.
Our biggest investment is in the human side of this business. Chemists, engineers, and quality control specialists communicate directly with our network of users. That gives us valuable insight into emerging research trends and common challenges. As a result, we’ve built a comprehensive knowledge database sourced from both our in-house analytical data and customer feedback. Whether troubleshooting a reaction, consulting on storage installations, or preparing for a regulatory inspection, users benefit from direct access to this depth of information.
We handle questions about sample compatibility, impurity analysis, application suitability, and shipping documentation nearly every day. Our technical support doesn’t stop at delivery. Time and again we share process improvements, lessons learned from decades of manufacturing, and adjustments based on the evolving needs of laboratories and industrial plants worldwide. Partnerships, not one-off sales, sit at the core of our approach.
This extends to sharing the realities of industrial production: Variability is tightly controlled, but never eliminated. Real-world chemistry inevitably introduces trace variances from feedstock shifts, process maintenance, or packaging improvements. Immediate communication helps customers react fast, with transparent updates guiding any necessary adjustments on their end. Our customers know they can reach us directly not only for reordering, but also for technical support or emergent troubleshooting — whether it’s an unexpected result in a new catalysis experiment or a question about labeling for an imminent regulatory audit.
The increasing focus on environmental, health, and safety standards demands tangible action at manufacturing sites. We make these requirements part of our daily process, from emissions reduction technologies and spill containment to third-party safety audits and ongoing labor training. Emerging regulations on persistent organic pollutants or targeted risk assessments raise new hurdles for established plants. Our operations already address these hurdles with waste minimization, green process uptakes, and closed system upgrades.
Our relationship with customers has shifted — not just ship-and-forget, but a partnership around responsible sourcing, transparent communication, and rapid response to laboratory, regulatory, or supply chain needs. By working closely with users, we share lessons learned from scaling up environmentally safer routes, transitioning to renewable energy contracts, and testing the latest monitoring tech.
As innovation in biomedical and materials research accelerates, so does demand for specialty chemicals manufactured you can trust. Synthetic chemists, biologists, and material engineers rely on suppliers who go beyond product catalogs — who support application troubleshooting, custom batch requests, and real-time updates on regulatory changes. Our commitment is to stand behind our product, sharing both its strengths and the hard-earned experience necessary to help customers use it effectively and responsibly.
All told, our journey with 1,2-dimethylhydrazine reflects what direct production experience teaches every day: Chemistry is about detail, consistency, and honest communication. Whether supporting cancer research on three continents or enabling the next synthetic breakthrough, we take pride in supplying a product shaped by real-world expertise and continuous improvement. Success in this market takes more than access to raw materials. It takes knowledge built over years of safe handling, constant dialogue with users, and an unwavering commitment to reliable, transparent supply.
From breakthrough research to day-to-day operations, users come to trust suppliers who offer not just a product, but answers, real technical backing, and genuine partnership. We look forward to contributing further as the needs grow and new challenges arise.