See how powder coated aluminum burners with integrated heat sinks prevent oxidation and grease
See how a fire grate with segmented dividing holes, metal mesh, and flame stabilizer reduces ni
See how a perforated tubular member attached to a gas burner ensures complete combustion and fa
See how a carbon-containing tubular member with multiple holes enables complete combustion and
See how a radiant permeable matrix burner with thermally insulated insert achieves ultra-low NO
See how a woven metal fiber burner deck with high and low density zones reduces thermo-acoustic
See how a porous baffle inside heat tubes increases turbulence and heat transfer surface area t
A perforated ceramic plate covering most of the burner surface keeps gas flow uniform and burns off grease before it can clog heat transfer.
A ceramic plate covering most of the burner top burns off grease on contact, preventing clogging and keeping radiant heat uniform.
Small laser-cut burner membrane holes enable denser patterns that lower hydrogen flashback risk and support efficient combustion.
A silicate-based nickel aluminide diffusion coating protects Ni-alloy burner parts from metal dusting and extends service life.
Out-of-phase concentric mesh layers make the burner liner optically opaque while delivering uniform firing rates and predictable combustion control.
Integrated monofilament threads stiffen a porous woven combustion membrane to stabilize flames, reduce overheating, and limit burner noise.
A silicate-based nickel aluminide diffusion coating protects burner surfaces from metal dusting and nozzle-edge corrosion, extending service life.
A twisted metal-fiber yarn forms a porous combustion membrane that improves heat insulation, gas distribution, and burner flame stability.