| Availability: | |
|---|---|
| Quantity: | |
model | l1 | l2 | l3 | l4 | l5 | l6 | l7 | l8 | l9 | l9 | l10 | l10 | b1 | b2 | b3 | b4 |
5# | 868 | 200 | 200 | 208 | 42 | 108 | 238 | 8 | 421 | 451 | 110 | 120 | 468 | 278 | 310 | 312 |
7# | 965 | 225 | 230 | 228 | 52 | 118 | 251 | 8 | 484 | 514 | 110 | 120 | 522 | 326 | 330 | 355 |
8# | 965 | 225 | 230 | 228 | 52 | 118 | 251 | 8 | 484 | 514 | 110 | 120 | 522 | 326 | 370 | 355 |
9# | 1158 | 300 | 233 | 248 | 62 | 128 | 391 | 8 | – | 523 | – | 120 | 560 | 357 | 425 | 490 |
10# | 1158 | 300 | 233 | 248 | 62 | 128 | 391 | 8 | – | 523 | – | 120 | 560 | 357 | 425 | 490 |
11# | 1198 | 300 | 271 | 288 | 82 | 148 | 391 | 8 | – | 563 | – | 120 | 564 | 357 | 454 | 490 |
model | b5 | b6 | h1 | h2 | h3 | h4 | h5 | d1 | d2 | d3 | d4 | d5 | d6 | d7 | r1 | r2 |
5/1# | 465 | 200 | 494 | 373 | 220 | 195 | 162 | 260 | 195 | DN50 | 200 | M10 | 235 | 210 | 680 | 800 |
5/2# | 465 | 200 | 494 | 373 | 220 | 195 | 162 | 260 | 195 | DN50 | 215 | M10 | 235 | 220 | 680 | 800 |
7# | 485 | 229 | 560 | 415 | 245 | 195 | 182 | 330 | 235 | DN65 | 250 | M12 | 298 | 270 | 720 | 840 |
8# | 485 | 229 | 560 | 415 | 245 | 195 | 182 | 330 | 235 | DN65 | 265 | M12 | 298 | 270 | 740 | 840 |
9# | 515 | 229 | 675 | 482 | 260 | 200 | 212 | 380 | 300 | DN80 | 325 | M12 | 330 | 305 | 960 | 1065 |
10# | 515 | 229 | 675 | 482 | 260 | 200 | 212 | 380 | 300 | DN80 | 325 | M12 | 330 | 305 | 960 | 1065 |
11# | 515 | 229 | 675 | 482 | 260 | 200 | 272 | 450 | 340 | DN100 | 380 | M12 | 400 | 38 |
This innovative system transcends traditional combustion limitations by integrating dual-fuel capabilities into a single, high-performing unit, capable of efficiently burning natural gas, liquid fuels (such as propane, diesel, or biofuels), or a combination of both. Designed for industries where fuel variability, operational resilience, and sustainability are paramount, the burner offers a future-proof solution that balances cost-efficiency with environmental stewardship.
At its core, the burner's architecture prioritizes adaptability, allowing seamless integration into new installations or retrofitting into existing systems without major modifications. A sophisticated control framework ensures optimal combustion under varying loads and fuel compositions, minimizing downtime and maximizing resource utilization. Whether responding to sudden fuel price fluctuations, regional supply constraints, or evolving emission norms, this burner provides a stable foundation for energy-intensive processes. By combining mechanical robustness with intelligent automation, it redefines what a combustion system can achieve—offering unmatched versatility for a world increasingly focused on flexible, low-carbon energy solutions.
Adaptive Fuel Management: Unlike conventional burners, this system incorporates an advanced dual-fuel injection system that dynamically adjusts fuel ratios based on real-time operational data. A hybrid combustion mode allows simultaneous use of gas and liquid fuels, optimizing energy output while leveraging the unique advantages of each fuel type (e.g., gas for clean-burning peaks and liquid fuel for sustained base loads). The system also supports fully automatic fuel switching, ensuring uninterrupted operation during supply transitions.
Precision Combustion Control: Equipped with a neural network-powered control module, the burner achieves unprecedented levels of combustion precision. Real-time sensors monitor key parameters—including flame stability, temperature gradients, and emission levels—while adaptive algorithms adjust air intake and fuel injection to maintain stoichiometric balance. This not only enhances thermal efficiency (up to 96% under ideal conditions) but also reduces unburned hydrocarbons and particulate matter.
Modular Design for Scalability: The burner’s modular construction enables easy customization for capacity requirements ranging from 50 kW to 50 MW. Interchangeable fuel nozzles, air blower configurations, and control modules allow users to scale the system up or down without replacing the entire unit. This design philosophy also simplifies maintenance, as individual components can be serviced or upgraded without disrupting operations.
Enhanced Emission Compliance: Built to exceed global emission standards (such as EPA Tier 4, EU MCPD, and IMO Tier III), the burner integrates multiple pollution control technologies. A two-stage combustion chamber with swirl-stabilized flame technology reduces NOx formation by 40% compared to standard burners, while a catalytic aftertreatment system further mitigates CO and VOC emissions. The system also supports low-sulfur and sulfur-free fuels, making it suitable for sensitive coastal or urban installations.
Rugged Operational Resilience: Engineered for harsh environments, the burner features a corrosion-resistant alloy casing and thermal-insulated components that withstand temperatures up to 1,200°C. Its robust ignition system ensures reliable startup in sub-zero climates or high-humidity conditions, while a dual-layer fuel filter system prevents clogging from impurities in liquid fuels. These features make it a trusted choice for offshore platforms, remote industrial sites, and mobile power units.
Process Industries & Refineries: Perfect for steam generation in petrochemical plants, food processing facilities, and pulp mills, where precise temperature control and fuel adaptability are critical for maintaining product quality. The burner’s ability to switch to heavy fuel oil during gas shortages ensures continuous operation without compromising process integrity.
Renewable Energy Integration: Supports hybrid energy systems by combining fossil fuels with biofuels (such as biodiesel or biomethane), enabling gradual transitions to low-carbon operations. Ideal for biomass co-firing plants, waste-to-energy facilities, and combined cycle power stations aiming to reduce reliance on traditional fuels.
Critical Power Solutions: Used in backup generators for data centers, hospitals, and telecommunication hubs, where uninterrupted power is non-negotiable. The burner’s rapid startup capability (under 30 seconds from standby) and dual-fuel redundancy ensure seamless load transfer during grid outages.
Agricultural & Environmental Applications: Powers drying ovens for grain processing, greenhouse heating systems, and industrial waste incinerators. The low-emission design makes it compliant with strict agricultural pollution regulations, while fuel flexibility accommodates locally available biofuels or waste-derived fuels.
Ecoflam Brand Compatibility: This Dual Fuel Burner is also fully compatible with Ecoflam brand systems, offering seamless integration into Ecoflam's existing burner frameworks. Ideal for users of Ecoflam's range of industrial heating solutions, the burner provides the flexibility to switch between multiple fuel sources, enhancing operational efficiency and sustainability.
Q: What types of liquid fuels can the burner handle besides diesel?
A: The standard configuration supports diesel, fuel oil (up to ISO-F-DMA), and biofuels with viscosity up to 50 cSt at 50°C. For heavier fuels or specialty blends, optional pre-heating and filtration modules are available.
Q: Does the burner require special training for operators?
A: The intuitive HMI interface minimizes training needs, with visual guides for fuel switching and diagnostic procedures. Comprehensive operator manuals and online training modules are provided, along with 24/7 technical support.
Q: Can the system operate on 100% hydrogen or hydrogen blends?
A: While the base model is optimized for natural gas-liquid fuel combinations, a hydrogen-ready variant (with upgraded material and safety features) is available for applications using up to 50% hydrogen by volume. Contact our engineering team for compatibility assessments.
Q: How does the burner handle low-load operations without efficiency loss?
A: The adaptive control system maintains stable combustion down to 20% of rated capacity using variable speed air blowers and precision fuel metering, ensuring consistent efficiency across the entire load range.
Q: What is the typical lead time for custom configurations?
A: Standard units are available within 4-6 weeks, while customized solutions (including material upgrades or special fuel setups) typically require 8-12 weeks. Site-specific engineering support is included throughout the process.
