Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
Follow us:

Ethylene Glycol Dinitrate(EGDN)

    • Product Name Ethylene Glycol Dinitrate(EGDN)
    • Alias Nitroglycol
    • Einecs 204-029-1
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    889822

    Cas Number 628-96-6
    Iupac Name 1,2-Dinitroxyethane
    Molecular Formula C2H4N2O6
    Molar Mass 152.06 g/mol
    Appearance Colorless to pale yellow oily liquid
    Density 1.488 g/cm³ (20°C)
    Melting Point -22 °C
    Boiling Point 199 °C (decomposes)
    Vapor Pressure 4.8 mmHg (20°C)
    Solubility In Water Slightly soluble
    Explosive Sensitivity Highly sensitive
    Detonation Velocity 7300 m/s
    Primary Uses Explosive, plasticizer in explosives
    Odor Sweet, alcoholic

    As an accredited Ethylene Glycol Dinitrate(EGDN) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Ethylene Glycol Dinitrate (EGDN) is packaged in 5-liter UN-approved steel drums, with hazard labels and secure, leak-proof sealed closures.
    Shipping Ethylene Glycol Dinitrate (EGDN) must be shipped as a hazardous material under strict regulations. It is classified as an explosive (UN 0241) and requires packaging in approved, tightly sealed containers. EGDN is sensitive to temperature, shock, and friction, necessitating secure, temperature-controlled transport by qualified personnel with proper labeling and documentation.
    Storage Ethylene Glycol Dinitrate (EGDN) should be stored in cool, dry, well-ventilated areas, away from heat, open flames, or sources of ignition. Use tightly sealed, compatible containers—preferably glass or stainless steel. Keep EGDN isolated from incompatible materials such as acids, bases, or reducing agents. Storage areas must be secure, clearly labeled, and compliant with regulations for explosive, toxic chemicals.
    Application of Ethylene Glycol Dinitrate(EGDN)

    Applications of Ethylene Glycol Dinitrate (EGDN) in Industrial Manufacturing

    As a direct manufacturer of Ethylene Glycol Dinitrate, we deliver this energetic material for well-established industrial sectors with stringent quality and compliance requirements. Our technical support team ensures safe, consistent supply for large-scale downstream integration. Below we outline proven, field-validated EGDN applications by industry segment, with specific regulatory and operational guidance for your production line.

    1. Explosives Manufacturing: Civilian Emulsion and Gel Explosives

    Ethylene Glycol Dinitrate is widely employed in the formulation of industrial explosives, particularly in the civil sector for mining, quarrying, tunneling, and construction blasting. Its high detonation velocity and energetic content make it an effective energetic plasticizer and active ingredient in emulsion matrices and gelatinous explosives. Formulators rely on controlled EGDN dosing to tune rheology and detonation characteristics, meeting local regulatory and workplace safety requirements during large-scale blending and cartridge production.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods, Model Regulations
    • United States ATF (Bureau of Alcohol, Tobacco, Firearms and Explosives) Storage and Handling Regulations
    • EN 13631-3: Explosives for civil uses — High explosives — Part 3: Determination of sensitiveness to friction of explosives
    • Australian Dangerous Goods Code (ADG 7.6) for Storage and Handling

    Typical usage ratio

    • 5-25% w/w of explosive formulation; values depend on the required brisance, plasticity, and temperature resistance. Higher ratios used for specialized water-resistant gels.

    Downstream process integration

    • Added during aqueous phase blending or emulsification, integrated after nitric acid neutralization and prior to thickener addition for emulsion explosives. For gelatin types, incorporated with nitroglycerin to create the energetic binder mix, then blended with sensitizers and fuels before extrusion or cartridge molding.

    Final product types

    • Emulsion explosives for quarrying and mining
    • Water-gel (slurry) explosives used in tunnel and shaft blasting
    • Detonating gelatin sticks and cartridges

    2. Initiator and Booster Charge Fabrication

    EGDN is used as a sensitizer fluid for detonator and booster charge manufacturing, specifically in cap primers where performance under adverse conditions and cold climates matters. Its low freezing point, compared to nitroglycerin alone, allows for stable operation in detonating systems and ensures reliable initiation even at subzero temperatures during field deployment.

    Industry compliance standards

    • EN 13763-28: Non-electric detonators and relays — Determination of resistance to cutting and crushing
    • Directive 2014/28/EU on the placing on the market and supervision of explosives for civil uses
    • U.S. Department of Transportation (DOT), 49 CFR Parts 100-185: Hazardous Materials Regulations
    • IMDG Code (International Maritime Dangerous Goods Code) — Class 1 Explosives

    Typical usage ratio

    • Generally 15-30% by weight in nitroglycol-nitroglycerin mixtures; adjusted downward for tropical climates and upward for Arctic deployment or winter operations.

    Downstream process integration

    • Mixed with nitroglycerin in the primary charge phase, introduced during the liquid energetic preparation before loading into metallic detonator shells or primer cups. Careful temperature monitoring at this stage ensures homogeneity and prevents premature volatilization.

    Final product types

    • Electric and non-electric detonators for industrial blasting
    • Booster pellets or caps for seismic exploration
    • Detonating fuse cords with temperature-stable initiation zones

    3. Propellant and Pyrotechnic Powder Synthesis

    Manufacturers of energetic propellant powders utilize Ethylene Glycol Dinitrate as a plasticizer and energy component in smokeless propellent formulations for civilian and industrial applications. This inclusion boosts plasticity and combustion performance, allowing for precise tailoring of burn rates according to application-specific chamber pressures. Integration typically addresses compliance with regional munitions legislation and environmental codes, with full traceability in process controls.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 Annex XVII — Restrictions on substances used in ammunition
    • NFPA 495: Explosive Materials Code
    • STANAG 4170 (NATO standard for explosives)
    • SAAMI (Sporting Arms and Ammunition Manufacturers' Institute) Voluntary Industry Performance Standards

    Typical usage ratio

    • 3-14% by weight in single- and double-base propellant formulas; actual dosage depends on the target energy output, smoke characteristics, and desired grain flexibility.

    Downstream process integration

    • Incorporated during the plasticization step of nitrocellulose base production, added with other energetic and stabilizing compounds before extrusion or granulation into final powder grains.

    Final product types

    • Smokeless powders for industrial blasting cartridges
    • Propellant charges for seismic survey equipment
    • Industrial signal and tracer powder compositions

    4. Research and Development: Energetic Material Formulation Pilot Studies

    Research institutions and regulated pilot-scale facilities use Ethylene Glycol Dinitrate for the development and testing of advanced energetic formulations, focusing on properties such as stability, vibration/impact sensitiveness, and working temperature range. Projects typically fall under strict containment, audit trails, and authorized handling protocols, with EGDN facilitating innovative binder and energetic phase combinations in qualification prototypes.

    Industry compliance standards

    • ISO/IEC 17025: Testing and calibration laboratories — General requirements
    • IATG 01.50: UN International Ammunition Technical Guidelines
    • OECD Good Laboratory Practice (GLP) for industrial chemicals
    • Local authority permits for the handling of Class 1.1D materials

    Typical usage ratio

    • 1-40% depending on investigative focus: lower dosages for compatibility screening; higher dosages for comparative energy and sensitivity testing.

    Downstream process integration

    • Dosed precisely in laboratory or pilot reactors equipped with explosion-proof monitoring, often co-plasticized with other nitrate esters or energetic additives, and sampled for subsequent thermal and sensitivity evaluation under controlled conditions.

    Final product types

    • Sample energetic compositions for scale-up evaluation
    • Experimental formulations for modeling detonation velocity
    • Calibrated reference standards for explosives research
    Free Quote

    Competitive Ethylene Glycol Dinitrate(EGDN) prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.

    We will respond to you as soon as possible.

    Tel: +8615371019725

    Email: admin@sinochem-nanjing.com

    Get Free Quote of Sinochem Nanjing Corporation

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    Ethylene Glycol Dinitrate (EGDN): Insights from an Experienced Manufacturer

    Understanding EGDN and Its Importance in Modern Industries

    For decades, Ethylene Glycol Dinitrate, known among professionals as EGDN, has been a product marked by precision in both manufacture and application. As a chemical manufacturer active in nitration chemistry, we've worked with EGDN through cycles of changing regulations, process advancements, and shifts in customer needs. Producers familiar with the nuances of nitroglycol chemistry recognize that EGDN is not simply another nitrate ester—it stands out due to its volatility, performance attributes, and the expertise required to handle its manufacture safely.

    Product Variants, Quality Standards, and Manufacturing Insights

    Many inquire about models or grades, but the conversation around EGDN focuses more on purity, moisture content, and inhibitor stability. Commercial production demands careful control at every stage, from raw material quality to final storage protocols. The industry recognizes differences between technical and high-purity grades—a high-purity EGDN contains extremely low water content and is free of acidic byproducts. This purity becomes important where the performance and reliability of EGDN matter most: blending with nitroglycerin in explosives, adapting to low temperatures, and minimizing hazards during transit and storage.

    Drawing from experience, I've seen how deviations in production, such as incomplete washing steps, can introduce residual acids and moisture. These impurities don’t just lower explosive power—they increase the risk of decomposition and sensitivity. Factories that cut corners pay for it later in defects, regulatory headaches, and, at worst, safety incidents. Consistently producing EGDN of the right specification takes commitment to process discipline, equipment maintenance, and skilled technicians.

    Applications: Why EGDN Remains Relevant

    For many, discussion of EGDN always circles back to explosives, particularly for its role in dynamite formulations. Our clients in mining, tunneling, and demolition keep returning to EGDN because it delivers where alternatives may falter. In cold regions where temperatures can plunge well below freezing, dynamite made with only nitroglycerin can become stiff, lose flexibility, and even stop working as intended. Blending in EGDN lowers the freezing point significantly, keeping energetic materials pliable and functional in subzero conditions.

    The conversation does not end there. For manufacturers preparing propellants, EGDN offers enhanced stability and energy over some traditional nitrate esters. Its use in certain military propellants traces back to specific needs for power and consistency, especially when performance cannot be compromised by cold weather.

    On the laboratory side, EGDN’s high vapor pressure and fast detonation velocity make it valuable for research into initiation systems and performance testing. Scientists rely on its sharp explosion characteristics to calibrate instruments and simulate extreme conditions. As a manufacturer, we collaborate with research labs, sometimes tweaking the purification process to deliver a product suited for analytic or test purposes, where trace contaminants would skew results.

    EGDN Versus Other Nitrate Esters: Practical Differences that Matter

    Having handled both EGDN and other nitrate esters like nitroglycerin and butane-1,4-diol dinitrate, the distinctions go beyond the laboratory data. EGDN features a lower viscosity and higher volatility. This means it can seep into porous matrices more easily and dissipates more readily if not carefully handled under well-sealed conditions. This very property, sought after in formulations requiring high mobility within a matrix or rapid vaporization, also adds to the safety and storage challenges.

    From a physical performance standpoint, EGDN brings a higher brisance—the sharpness of explosion—than nitroglycerin, making it useful for boosting the performance of mixtures without requiring large increases in total nitrate ester content. The freezing point stands out in industry experience as a major differentiation: while nitroglycerin can turn solid just above freezing, EGDN remains liquid far below zero, unlocking its value throughout cold-chain supply operations in mining.

    EGDN also emits distinct odors and vapors, and its toxicity profile calls for a specific approach to worker safety. Inhaling EGDN vapor produces immediate physiological effects. Workers exposed by accident quickly recognize symptoms, including headaches and low blood pressure. Over years, we've adapted factory designs and personal protection strategies to minimize vapor exposure, including the need for specialized ventilation and real-time air quality monitoring on the production floor.

    Comparing to other nitrate esters, storage protocols diverge due to the increased volatility. EGDN stocks sit best in containers engineered for both chemical compatibility and vapor tightness. Experience has shown the cost of cautious handling pays off, reducing product loss from evaporation and lessening insurance liabilities linked to fire and toxicity risks.

    Real-World Challenges and Solutions in Manufacturing EGDN

    Every manufacturer faces the pressure of balancing yield, purity, and safety. EGDN pushes all these to the limit. The nitration reaction runs exothermic and uncontrollable surges in temperature pose runaway risks. Reliable manufacturing means investing in robust cooling, sensitive process automation, and multiple safety systems. Years on the production line have confirmed that staff training matters just as much as the sophistication of reactors or purification columns.

    Waste management forms another real cost and responsibility. After-wash water, spent acids, and off-spec EGDN demand secure destruction or neutralization. As environmental standards tighten, we've refined neutralization methods and invested in effluent-polishing units to achieve compliance. Draining acidic wastes untreated, once-surprisingly common, is now rightly inexcusable. Failure to invest in proper environmental systems only leads to regulatory penalties and public distrust.

    Shipping EGDN brings logistical issues rarely found in other chemicals. Strict regulations on quantities, packaging, and labeling reflect EGDN's sensitivity and hazard profile. Only staff trained in hazardous goods can even think about preparing shipments. Partnering with transporters that understand the difference between EGDN and less sensitive products has prevented incidents that rival horror stories passed between industry professionals.

    Advancing Safety and Product Stewardship

    The risks involved in handling EGDN drive continuous improvement. Modern plants adopt closed systems, inert gas blanketing, and sophisticated leak detection. Over time, we've introduced operator health screening and real-time vapor monitoring, adjusting shift schedules in response to risk assessments.

    Working with EGDN leaves little room for error. Experience shaped our approach to everything from staff on-boarding to relationships with local emergency services. The worst incidents reported in the industry share one factor: complacency. Rigorous training, strict adherence to process controls, and continuous management oversight form the backbone of safe manufacturing.

    We’ve partnered in industry initiatives to share best practices and improve emergency preparedness. Professional responsibility doesn't stop at the factory gate. As a supplier, we take the time to walk through handling procedures with downstream users, and sometimes send staff to check customer storage arrangements. These investments eliminate accidents and protect everyone in the chain—from plant operator to final user.

    EGDN in the Broader Context: Market and Regulatory Trends

    The regulatory environment for EGDN continues to evolve. National and international controls keep growing tighter, reflecting legitimate security and environmental concerns. We've adapted by investing early in compliance and documentation systems, including digital batch traceability and transparency in licensing. In some countries, obtaining permits to manufacture, store, or transport EGDN demands rigorous background checks, detailed safety documentation, and regular audits.

    These rising expectations reshape supply chains. Fewer plants receive authorization to produce or export EGDN today than a decade ago. Buyers turn to trusted sources with a record of compliance and technical support. As supply tightens, quality matters more: customers want to work with suppliers who know their product inside and out, and who do not treat EGDN as just another item on a list.

    Research, Innovation, and the Future of EGDN Manufacturing

    Innovation plays a quieter but important role in established industries. Our R&D team has worked over the years to refine the nitration process, seeking to lower reaction temperatures, improve yield, and reduce side-product formation. Automation and process analytics now help spot trouble in real time. We test new inhibitors to extend shelf life and study stabilizers that might reduce decomposition risk during long-haul transportation.

    Alternative energetic materials continue to emerge, but for many jobs EGDN maintains its relevance. New explosives and propellant formulations still call for its unique set of properties, especially where cold weather and high detonation velocity intersect. Collaborative research with academic and military institutions explores improvements in synthesis efficiency, degradation mechanisms, detection methods, and even strategies for safer disposal.

    Teams across our company keep a sharp eye on global research—for innovations in plant safety, greener methods, and smarter packaging. Knowledge of the product’s hazards does not keep us from seeking improvements but motivates us to make the plant safer each year. After all, the future of EGDN depends on the thoroughness of those who produce it responsibly.

    Why In-House Manufacturing Experience Means Better EGDN

    Products like EGDN should come with more than a data sheet. Our decades in this specialized field taught us to watch not just the numbers, but the context—seasonal shipping risks, storage temperature swings, long-term chemical stability, and even how the world's changing regulatory pace might affect downstream users.

    Every batch of EGDN tells a story, from the selection of ethylene glycol feedstock to the final test in quality assurance. Our lab staff conducts analysis using tried-and-true methods for acid residue, moisture, and active content. In some cases, we assist customers with troubleshooting, suggesting tweaks in their own formulations based on our manufacturing perspective.

    End users in mining, demolition, or research need more than just supply—they benefit from dialogue and technical partnership. Being a hands-on manufacturer, we understand which questions matter: How will the product behave under cold storage? What stabilizers or inhibitors are present, and do they interact with other mixture components? How do packaging methods influence product longevity or transport safety?

    Consulting as a manufacturer, not as a mere vendor, lets us solve practical issues. A shipment delayed at a cold border crossing presents different hazards compared to long-term warehouse storage. Our input helps customers build resilience into their supply chains, adapt to regulatory changes, and reduce the risk of lost product or compromised safety.

    Continuous Commitment to Quality, Safety, and End-User Success

    Manufacturing EGDN never grows routine. Over the years, we built systems to ensure every bottle and drum meets agreed standards. Real-world customer feedback feeds directly into process updates—when a property change or stability issue emerges, our team investigates, often visiting user sites to observe conditions first-hand.

    Technical support covers more than troubleshooting. We help customers plan for regulatory changes, document compliance, or revise in-house procedures to better align with best safety practice. In emergencies, we mobilize staff and resources to help recover or safely dispose of compromised product.

    Maintaining a high standard for EGDN only works with open communication. Users trust our advice because it's shaped by production floor realities, not just page-bound protocols. Training programs and visits strengthen these ties, ensuring our product plays its proper role in each customer process.

    Conclusion: EGDN’s Lasting Role and the Responsibility of Manufacturers

    Ethylene Glycol Dinitrate anchors a distinct intersection between chemistry, engineering, and safety. As a result, companies who produce it shape not just individual batches, but the standards and culture surrounding its use. Every day, our team applies lessons learned through practical experience—tightening controls, investing in staff, and collaborating with partners across the globe. The future of EGDN will depend upon this patient, detail-driven approach, supported by hands-on experience rather than distant oversight.

    Suppliers rooted in real manufacturing take their place in the EGDN market not as background players, but as trusted partners in innovation, stewardship, and technical excellence. The challenges are real, but so are the rewards of supplying an essential product to the industries that depend on it season after season.