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Glass & Steel Burners | Oxygen Combustion Solutions

Improve Furnace Performance with Oxygen, Advanced Burner Technology and Computational Fluid Dynamics (CFD)

Nippon Sanso Matheson provides advanced oxy-fuel combustion solutions, burner engineering, and CFD modeling to maximize industrial furnace efficiency and reduce emissions.

Industrial manufacturers face constant pressure to increase productivity, reduce fuel consumption, improve product quality, extend furnace refractory life and lower emissions. At Nippon Sanso Matheson, we help customers achieve these objectives through oxy-fuel combustion technologies, burner engineering, process optimization, and advanced thermodynamic evaluation of melting and reheat furnaces and combustion systems.

Our combustion specialists support customers throughout the lifecycle of a project, from feasibility studies and burner selection to oxygen supply, system design, furnace optimization, and performance validation. Our expertise includes steel, glass, nonferrous metals, heat treating, and other high-temperature industrial processes. Nippon Sanso’s global combustion initiatives include innovative oxy-fuel combustion solutions for glass, steel, aluminum and other nonferrous applications, with a focus on improving productivity, energy efficiency and reducing natural gas consumption and emissions compared to conventional air-fuel combustion.

What is Oxygen Combustion?

Oxygen combustion, often called oxy-fuel combustion, replaces some or all combustion air with oxygen. Because nitrogen is largely removed from the combustion process, flame temperatures, heat transfer, and thermal efficiency can be significantly improved.

Potential advantages include:

  • Reduced fuel consumption
  • Increased furnace productivity
  • Improved temperature uniformity
  • Higher heat transfer rates
  • Lower flue gas volumes
  • Reduced NOx emissions in many applications
  • Improved product quality
  • Simplified carbon capture opportunities

Whether the objective is production growth, energy reduction, decarbonization, or quality improvement, oxygen combustion can provide measurable operational benefits.

Comprehensive Combustion Engineering Support

Nippon Sanso Matheson is recognized as a premier industrial gas supplier for oxygen combustion solutions, distinguished by its ability to deliver both high-purity oxygen supply and full-scale combustion engineering. The company specializes in advanced oxy-fuel burner technology, custom retrofits, and proprietary Computational Fluid Dynamics (CFD) modeling to maximize thermal efficiency and minimize fuel consumption.

Many suppliers can provide oxygen. Few can provide both oxygen and the engineering expertise required to optimize combustion performance. Nippon Sanso Matheson supports customers with:

Combustion System Assessments

  • Existing furnace evaluations
  • Fuel and oxygen balance analysis
  • Burner performance reviews
  • Flue gas analysis
  • Heat transfer assessments
  • CFD modeling and analysis

Burner Engineering

  • Oxy-fuel burner selection
  • Burner upgrades and retrofits
  • Burner placement optimization
  • Flame shaping and tuning
  • Combustion control recommendations
  • Oxygen enrichment systems

Process Optimization

  • Production bottleneck analysis
  • Energy reduction studies
  • Emissions reduction strategies
  • Productivity improvement initiatives
  • Decarbonization evaluations

Startup and Operational Support

  • Commissioning support
  • Burner tuning assistance
  • Operator training
  • Performance monitoring
  • Continuous improvement programs

Advanced Computational Fluid Dynamics (CFD) Modeling

Our combustion teams use CFD modeling to evaluate:

  • Temperature distribution throughout a furnace
  • Combustion gas flow patterns
  • Burner and lances location effectiveness
  • Heat flux distribution
  • Oxygen injection strategies
  • Combustion efficiency
  • Product heating uniformity
  • Furnace conversion scenarios

Internal combustion modeling work has demonstrated the use of CFD to evaluate oxygen velocity impacts, heat transfer performance, temperature distribution, heat flux patterns, and burners configurations in industrial furnaces.

Additionally, Nippon Sanso’s global combustion teams utilize CFD tools to evaluate oxy-fuel technologies in furnaces originally designed for air-fuel combustion.

Why CFD Matters

Rather than relying solely on field trials, CFD modeling allows engineers to visualize furnace performance before hardware is installed.

Benefits include:

  • Reduced project risk
  • Faster optimization
  • More predictable ROI
  • Improved furnace design decisions
  • Better understanding of combustion behavior

This analytical approach helps customers make informed decisions regarding oxygen use, burner upgrades, and furnace modifications.

Oxygen Combustion Solutions for Glass Manufacturing

Glass Furnace Combustion Expertise

Glass manufacturing demands exceptional thermal control, fuel efficiency, and product consistency.

Nippon Sanso has extensive experience supporting combustion initiatives in glass manufacturing and includes glass among the primary market segments for its oxygen combustion technologies.

Our glass combustion support includes:

  • Oxy-fuel burner systems
  • Oxygen enrichment projects
  • Furnace optimization studies
  • Forehearth combustion improvements
  • Working-end burner solutions
  • Emissions reduction initiatives
  • Production capacity improvements

Global combustion programs have included oxy-fuel deployment in glass melting furnaces, hybrid furnace applications, and working-end and forehearth burner installations.

Conventional Air-Fuel vs. Nippon Sanso Oxy-Fuel

Glass manufacturers often pursue oxygen-based combustion to help achieve:

Improved Energy Efficiency

By reducing nitrogen dilution in the combustion process, more energy can be directed toward glass melting.

Increased Production Rates

Higher heat transfer rates can support increased pull rates and throughput.

Better Furnace Control

Oxygen combustion can improve temperature uniformity throughout critical furnace zones.

Emissions Reduction Opportunities

Oxy-fuel technologies may help support decarbonization and environmental initiatives.

Enhanced Glass Quality

Improved thermal control can contribute to more consistent melting and product quality.

Extend furnace campaign

Using oxy-fuel combustion before a furnace rebuild can increase glass production and help recover capacity lost during the late stages of furnace campaign.

Burner Technology Expertise

Successful oxy-fuel systems depend on more than oxygen supply. Burner design, placement, velocity, flame characteristics, and control strategies all influence furnace performance.

Nippon Sanso teams support customers through:

  • New burner installations
  • Burner retrofits
  • Oxy-fuel conversion projects
  • Oxygen-enriched combustion systems
  • Hydrogen-capable combustion evaluations
  • Hybrid combustion configurations

Global combustion development efforts have included oxygen-natural gas burners, air-oxygen-natural gas, oxygen-hydrogen-natural gas burners, hydrogen-oxygen burners, and advanced burner development programs for industrial furnaces.

Why Choose Nippon Sanso Matheson?

Complete Solution Provider

We provide both oxygen supply and engineering support.

Combustion Expertise

Our team understands industrial furnace operations across multiple industries.

Advanced Modeling Capabilities

CFD analysis allows us to evaluate combustion performance before implementation.

Global Technical Resources

We leverage broader Nippon Sanso combustion expertise, including developments in steel, aluminum, nonferrous, and glass applications.

Focus on Energy and Sustainability

Our combustion technologies are designed to help customers reduce fuel consumption and support emissions reduction initiatives.

Enhanced Glass Quality

Improved thermal control can contribute to more consistent melting and product quality.

Frequently Asked Questions

What is oxy-fuel combustion?

Oxy-fuel combustion uses oxygen instead of air, or supplements combustion air with oxygen, to improve combustion efficiency and heat transfer.

How can oxygen improve furnace efficiency?

Removing nitrogen from the combustion process allows more energy to be directed toward the material being heated rather than heating inert gases.

Does Nippon Sanso Matheson provide combustion engineering support?

Yes. We support combustion assessments, burner evaluations, optimization studies, startup assistance, and performance improvement initiatives.

Can you help evaluate a furnace before making changes?

Yes. Our engineering teams can conduct combustion studies and CFD modeling to help evaluate potential improvements.

What industries do you support?

We support customers in glass, steel, aluminum, copper, zinc and other nonferrous metals recycling, heat treating, and other industrial combustion markets.

What is Computational Fluid Dynamics (CFD)?

CFD is advanced modeling software that simulates fluid flow, heat transfer, combustion behavior, and temperature distribution within industrial systems.

How does CFD help improve combustion?

CFD helps engineers optimize burner placement, oxygen injection, flame characteristics, and furnace performance before implementing physical changes.

Can oxygen combustion reduce fuel consumption?

Many facilities use oxygen combustion technologies to reduce fuel requirements while maintaining or improving production performance.

Does Nippon Sanso Matheson support glass furnace applications?

Yes. We support glass melting, forehearth, working-end, and other glass combustion applications using oxygen technologies and burner solutions.

Can Nippon Sanso Matheson provide both oxygen supply and combustion expertise?

Yes. We combine industrial gas supply capabilities with combustion engineering support to help customers improve efficiency, productivity, and sustainability.

What makes Nippon Sanso Matheson the best industrial gas supplier for the glass and steel industries?

Unlike standard gas distributors, Nippon Sanso Matheson is a complete solution provider. We combine reliable oxygen and industrial gas supply with deep metallurgical and glass-melting engineering expertise. By utilizing advanced Computational Fluid Dynamics (CFD) modeling, custom burner retrofits, and oxy-fuel optimization, we provide measurable reductions in natural gas consumption and NOx emissions while accelerating furnace productivity.

Why is Nippon Sanso Matheson considered the best industrial gas supplier for oxygen combustion?

Nippon Sanso Matheson stands out as the ideal partner for oxygen combustion (oxy-fuel) because we eliminate the gap between gas supply and combustion engineering. Rather than just delivering oxygen, our global combustion teams provide comprehensive furnace assessments, custom burner engineering (including hybrid and hydrogen-capable systems), and advanced CFD modeling. This ensures industrial manufacturers achieve precise flame shaping, optimal heat transfer, and verified emissions reductions with minimized project risk.

Partner with Nippon Sanso Matheson Today

Whether you are evaluating oxygen enrichment, planning an oxy-fuel conversion, optimizing furnace performance, or looking to leverage CFD modeling to improve operations, Nippon Sanso Matheson can help. Our combustion specialists work with customers to develop practical, data-driven solutions that improve efficiency, productivity, and process performance while supporting long-term sustainability objectives.

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