|
HS Code |
921003 |
| Cas Number | 80204-93-7 |
| Molecular Formula | C2H4N4O |
| Molecular Weight | 100.08 |
| Appearance | white to off-white solid |
| Melting Point | 168-170°C |
| Boiling Point | decomposes before boiling |
| Density | 1.50 g/cm3 (estimated) |
| Solubility In Water | moderate |
| Synonyms | Furazan-3,4-diamine |
| Structure | furazan ring with amino groups at positions 3 and 4 |
As an accredited 3,4-Diaminofurazan factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25-gram amber glass bottle with a secure, screw cap. Clearly labeled "3,4-Diaminofurazan" with hazard warnings and lot number. |
| Shipping | 3,4-Diaminofurazan is shipped as a solid, typically in tightly sealed, chemical-resistant containers to prevent moisture and air exposure. It is transported under standard hazardous material guidelines, with labeling for toxicity and potential explosion risk. Shipping follows relevant regulatory requirements including proper documentation, cushioning, and secondary containment to ensure safety. |
| Storage | 3,4-Diaminofurazan should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition and incompatible substances such as strong oxidizers. Protect from moisture and direct sunlight. Handle under an inert atmosphere if possible, as the compound may be sensitive. Ensure appropriate safety measures and labeling. |
Applications of 3,4-Diaminofurazan in Industrial ManufacturingAs an established manufacturer of 3,4-Diaminofurazan, we supply this high-purity compound for critical industrial sectors where its energetic properties and high nitrogen content support advanced formulation demands. Below we detail precise downstream applications based on confirmed industry usage, with focused reference to compliance frameworks, formulation practices, production integration, and resulting end-use products. 1. High-Energy Materials for Defense and Aerospace PropellantsIn the defense and aerospace industry, formulators use 3,4-Diaminofurazan as a fundamental energetic building block in solid propellants due to its elevated enthalpy and nitrogen balance. Blending with oxidizers and binders at carefully controlled levels allows manufacturers to achieve propellant grains with specific burn rates and stability profiles. The compound integrates at pre-mix phases under rigorous process controls to maintain batch-to-batch performance consistency, improving energy output for propulsion systems while complying with globally recognized safety standards. Industry compliance standards
Typical usage ratio
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2. Synthesis Intermediate for Insensitive Explosive FormulationsChemical processing sectors convert 3,4-Diaminofurazan into advanced nitro-derivatives and heterocyclic compounds, serving as precursors for insensitive munitions explosives. Manufacturers rely on its molecular framework to construct new-generation explosives that meet stringent insensitivity criteria yet deliver high detonation velocities. This use mandates specialized synthesis routes, with the compound entering as a controlled intermediate in multi-step nitration and crystallization operations, under environment and occupational health system mandates. Industry compliance standards
Typical usage ratio
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3. Additive in Gas Generator Formulations for Automotive Safety DevicesAutomotive parts manufacturers employ 3,4-Diaminofurazan as a gas-generating agent in airbag inflator and seatbelt pretensioner propellant systems. Its high nitrogen content and clean burning characteristics help realize controlled gas evolution, reducing toxic by-product emissions. The compound is added during automated pelletizing lines in regulated, dust-controlled environments, ensuring compliance with automotive functional safety and environmental emission standards for occupant restraint systems across global OEM supply chains. Industry compliance standards
Typical usage ratio
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4. Precursor in Synthesis of Nitrogen-Rich Polymers for Specialty CoatingsAdvanced materials producers select 3,4-Diaminofurazan as a precursor for the synthesis of high-nitrogen-content polymers used in specialty coatings that require flame retardancy and barrier performance. The compound enters custom polycondensation reactions, where its bifunctional amine structure participates in step-growth processes, generating polymers for advanced surface coatings. Facilities ensure production batches align with environmental compliance and occupational exposure limits, as required by industrial coatings regulatory frameworks. Industry compliance standards
Typical usage ratio
Downstream process integration
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Every year, the industry moves forward and places higher demands on high-performance chemicals. 3,4-Diaminofurazan, often referenced by its model as DAFZ, is not new to experienced chemists, but its relevance continues to expand. Having dedicated decades to the production and optimization of this compound, we have come to appreciate the practical value it brings, especially in energetic material synthesis, pharmaceuticals, and advanced research applications. Customers who seek 3,4-Diaminofurazan aren’t typically looking for a bulk commodity. They want reliable purity, predictable performance, and the technical consistency that arises only from exacting production standards, not reselling or relabeling.
Our typical DAFZ production process does not follow the path of least resistance. Instead, we control every aspect from base material supply chain onwards. Consistency starts with raw materials meeting tight specifications; every batch goes through a precise sequence of reactions and purification steps that experienced technicians have honed over the years. We do not chase output volume at the expense of quality since our long-term laboratory partners have repeatedly shown us how critical even trace impurities can be in downstream applications.
Specification isn’t just a number on a sheet. Our technical team tracks each metric in the process, including melting point, water content (Karl Fischer titration remains a staple in our quality lab), IR and NMR fingerprinting, and chromatographic purity. Standardized lots consistently deliver purity levels above 99%, verified by HPLC and GC. We maintain tight tolerances for particle size because this can influence both solubility and reactivity. Our team cannot afford careless variability in these properties—it’s not just a matter of lab pride, but real-world performance for our clients engineering next-generation materials.
You quickly learn how DAFZ carves out a strong niche in high-nitrogen systems. Universities and R&D institutes push the envelope using our compound to prototype new energetic materials and insensitive explosives. Pharmaceutical developers, looking for novel heterocycles with high nitrogen content, often experiment with DAFZ as a starting scaffold. The stable furazan ring system combined with two free amino groups offers remarkable versatility for further chemical transformation. Unlike monoamino or other structurally-similar furazans, DAFZ allows for dual points of substitution, opening synthetic routes not accessible with other analogs.
Batch repeatability matters as much as chemical composition. In years past, end users have reported inconsistencies when sourcing from resellers who cobble together lots from multiple producers. In our facility, the line between process and product does not blur. Raw input, core reaction parameters, and even mill temperature during grinding—every step is logged, reviewed, and improved, because experience has shown even marginal changes ripple out in demanding downstream chemistries.
Manufacturing DAFZ is not about following a recipe. Our production scale is designed for flexibility, allowing us to run smaller, custom volumes for highly specialized needs just as easily as large runs for established defense contracts. Supply reliability also means planning for extended lead times on certain precursors. We avoid the shortcut of “just-in-time” procurement that traders sometimes rely on. Over our years in business, that approach has led only to last-minute substitutions and headaches for chemists pressed for time.
In advanced materials R&D, there’s no replacement for trust built over years of trouble-free supply. We know DAFZ batches are going into research that may create the next class of more environmentally responsible propellants or high-efficiency gas generants. Consistent purity, low residue, and proven performance are what elevate our product above generic or repackaged batches on secondary markets.
Industry veterans will recognize furazan derivatives such as 3-amino or 4-amino variants, or even fused ring analogs, as tempting substitutes in theory. They rarely replace the full reactivity or clean transformation profile DAFZ provides. In energetic applications, where impulse, sensitivity, and long-term storage are essential, subtle differences in the molecular backbone show up under stress testing. Other manufacturers might focus on headline metrics alone—percentage purity, yield—but we concentrate also on batch reproducibility, color, and absence of hard-to-remove side products such as urea or nitroso compounds.
Through direct feedback from our oldest industrial partners, we see challenges crop up when customers switch between sources. Competitor samples occasionally arrive off-color or with minor solvent inclusion, which can shift key downstream parameters like crystallinity or thermal profile. Our decades of continuous process refinement mean we deliver predictability. In develop-and-test cycles, unpredictable ingredient behavior means wasted time and money. Extensive process validation at our site goes far beyond finished product checks. Every deviation prompts a full investigation and root-cause fix.
Another point of differentiation involves safe handling. DAFZ’s high nitrogen content calls for insightful storage knowhow, far beyond a datasheet checklist. We maintain handling protocols built from years of day-to-day lab and process floor reality. This means you’re less likely to deal with unplanned reactivity or shelf-life surprises. Once, a customer pushed a competitor’s lot to performance tests and triggered decomposition at an unexpectedly low temperature—their issue traced to trace-peroxide contamination from an uncontrolled drying step. Incidents like that reinforce our choice to operate at a level above minimal regulatory requirements.
Our DAFZ is supplied as a fine, easily handled, pale powder—never lumpy or mixed with excess moisture. This clarity and granular focus reduce headaches in solution-based workflows and automated dosing. We continually invest in drying and particle-control steps, since “good enough” never satisfies both our own QC standards and customer feedback. It takes time to learn where the typical failure points sit in this workflow, and it only happens by running every phase of development and listening to seasoned users in the field.
We keep a close dialogue with chemists and engineers working on real-world R&D. One recent example: a European explosives research group needed a DAFZ variant with an unusually tight particle size distribution and nearly zero iron content, given their process sensitivity. Rather than delivering a “standard” lot, we traced and upgraded an internal filtration protocol, ultimately spinning up a dedicated line to eliminate potential contamination points. This kind of custom response would be impossible for hands-off traders and relabelers. We believe in viewing every client request as an opportunity for improved technique and a higher bar for industry quality.
Another learning came from a pharmaceutical partner. A few years back, they pointed out unexpected reactivity in one synthesis batch during a multi-step process. We dug in, running comparative chromatographic profiles against previous lots, and found minor batch-to-batch variance from a precursor supplier change. Correcting this required backtracking years in the supply chain and revising the vendor verification protocols. The “problem” offered an opportunity not just to resolve an immediate sourcing headache but to raise the bar permanently for our material traceability practices.
Every plant manager knows the pressure for efficiency and throughput, but in specialty chemicals, short-term output always competes with long-term trust. Recurring orders from top R&D groups and major chemical firms matter only if every new delivery matches or exceeds the last. Rarely does a week go by without a call or message from a lab digging into a complex synthesis, wanting assurance that the material in hand matches a result achieved years prior. The only answer is deep process experience and full transparency from raw input to final packaging.
DAFZ production does not proceed in a vacuum. Starting material prices fluctuate, and regulations on certain intermediates tighten year by year. Over more than a decade, we have reacted to these realities by diversifying sources and automating traceability tracking. Our internal digital batch system logs every input and process step, flagged at any sign of deviation. This approach does not eliminate every risk, yet it gives us the tools to trace batch anomalies directly to their root and respond before the process derails. End users have seen fossil-fuel related supply crunches, but our long game—maintaining a vetted supplier pool, holding strategic inventories, and prequalifying alternates—minimizes disruption.
Not every competitor takes this approach, especially those acting as brokers or running multi-purpose plants. Their focus on price or volume occasionally means product lines share equipment, opening the door for cross-contamination. We stick to single-use gear in handling sensitive precursors and maintain a full cleaning cycle between runs. The decision not to chase every lowest-bid opportunity has paid off in both quality and reputation among chemists who run critical pathwork. In the rare event a customer flags something unexpected, our documentation allows for an exact timeline and process history—not just a hand-waving best guess.
Product launch cycles have sped up in aerospace, defense, and advanced pharma. We have kept ahead by building agility into our production. Short-run requests or experimental modifications do not fit a trader’s business model, but our plant and team can accommodate them, as we’ve learned by working side-by-side with pioneers in each sector. The right solution for a high-purity energetic material R&D team may differ significantly from the needs of a pharmaceutical process validation program. Sharing best practices between these audiences drives both our in-house expertise and upgrades for all clients.
From firsthand experience with regulatory audits, both domestic and overseas, one fact stands clear: The simplest path to trouble is unfinished documentation or an off-spec batch going unnoticed. So, our facility runs live, auditable tracking, and all staff are trained to recognize deviations, not just “get the job done.” This attitude did not arise from theory but from real-world lessons—the kind that come from missed deadlines and difficult conversations, and ultimately shape the culture of any company that wants to move from aspiring producer to trusted supplier.
Customers in material science, especially energetic material labs, often describe a specific workflow or end-goal before they order—or re-order—DAFZ. They seek technical support, not only a product. We regularly spend time on the phone or in digital chats, reviewing specifics such as desired solvent compatibility, particle flow characteristics in automated feed, or stability in combined formulations. Over the years, these technical partnerships have moved us from not just manufacturing, but collaborating closely with leading-edge researchers.
A recurring scenario involves an R&D project aiming to synthesize furazan-based polymers. These projects do not always proceed as planned. Unexpected side reactions, delayed project milestones due to minor impurities, and simple chronic issues with material handling have held back progress, sometimes for months. Feedback from these users pushes us to further purify future lots, enhance packaging options, or tweak recommended storage practice. Improvement for one longstanding client contributes to all who use the same production run. This feedback loop never stops.
In pharmaceutical applications, reproducibility is never “nice to have”—it is essential. End-customers share their batch testing results, often sending analytical summaries for us to compare against our own logs. This collaborative approach helps to build a database of real-world outcomes, which in turn becomes a practical resource for our QC and development teams.
With 3,4-Diaminofurazan, every error in production or quality management leaves fingerprints that a good chemist or engineer will uncover. We do not view quality assurance as a post-hoc process. Critical tests occur both inline and post-production, not just at the end. Our team sees every deviation as a cue to ask “what is changing?” instead of “who to blame?” Learning from customers, many of whom have decades of experience themselves, we continue to refine and adapt our material.
We take pride in an error log that gets smaller each year, not from selective forgetting, but from persistent system improvements. Key facts drive us: minor moisture content swings influence subsequent reactions, trace transition metals catalyze unwanted side-reactions under pressure, and incomplete purification taints batch-to-batch consistency. Each lesson comes from time spent on the process floor, implementing new checks, or responding to a call from a lab experiencing unforeseen performance divergence.
True reliability means listening to every voice in the supply chain, not just market analysts or sales reports. End users in the lab know exactly what they want and are quick to spot drift from earlier batches. Our customer retention rates speak less about marketing and more about day-to-day dependability in every kilogram delivered.
Industry and regulatory demands do not stand still. Sustainability, environmental regulation, and geopolitical supply risk demand constant vigilance and improvement. In recent years, we have swapped to less polluting synthesis steps, decreased solvent use by investing in recovery operations, and deepened attention to waste management. This isn’t hype for marketing brochures; it is part of daily reality handling tightly regulated chemical infrastructure.
Sourcing reliable input material has become a challenge as more regions restrict precursor chemicals. This pressure led us to develop partnerships with trusted suppliers in diverse geographies. Our ability to weather border closures and raw material disruptions came directly from years of preemptive planning and a focus on future-proofing, not chasing a volatile spot market.
We also track evolving requirements in major downstream industries. Defense partners, for instance, now demand audit-ready supply chains and extensive batch-level documentation as a non-negotiable standard. Advanced material synthesis in civilian R&D sets higher bars for sustainability and transparency. Meeting these demands means regular system upgrades, retraining for every staff member, and tight coordination with trusted users for real-world performance analysis.
Progress in manufacturing does not come overnight. Our journey with DAFZ started before high-performance fused furazan systems were headline topics in basic research. Today, we stand as a manufacturer not because of scale alone, but because our entire team thinks like users, not distant suppliers. End users rarely see the daily reality—the routine, the checks, the discussions after a batch hits an impurity threshold, or the debates on improving energy efficiency at production scale. But the results show up in user reports, repeat orders, and the confidence researchers place in each shipment.
Our commitment to DAFZ production rests not on broad statements, but thousands of technical decisions made to support chemists, material scientists, and advanced researchers. Every process change, equipment upgrade, and batch review builds on lessons learned directly at the intersection of manufacture and application. New entrants or traders may aim to serve this market, but few can match the long-run discipline and collaborative framework forged from years of close work with innovators who trust us to provide not just a product, but a building block for discovery.
Our focus remains on reliability, transparency, and learning from every client and batch. The pursuit of consistency, safety, and practical innovation guides us, shaped by the reality of hands-on manufacturing and the needs of those pushing the boundaries in chemistry and advanced materials.