A portable burner includes: a burner body having a burner head; and a fuel storage unit disposed below the burner body, and configured to supply fuel to the burner head, wherein the fuel storage unit includes an inner case configured to store fuel, and an outer case configured to accommodate the inner case therein, wherein at least part of the inner case and the outer case is formed to be transparent or semi-transparent, and wherein a shock absorber is formed between the inner case and the outer case. Under such configuration, a user can check the amount of fuel remaining in the fuel storage unit with the naked eye, and damage and transformation of the portable burner can be minimized.

Burner assemblies including panels (e.g., transparent panels) supported in a substantially parallel, closely-spaced relationship and gaskets and spacers sealing the space between the panels to form a perimeter seal and to define a plenum between the first and second panels with an inlet into the plenum and an outlet out of the plenum.

A device for use in a burner, including a honeycomb body formed from a metal band. The metal band is laminated or coiled to yield a plurality of holes or apertures. The honeycomb body has first and second surfaces which are opposite to each other. The holes or apertures penetrate through the first surface and the second surface, and an outer boundary of the first surface and an outer boundary of the second surface are connected whereby yielding a lateral surface. A through hole is disposed on the lateral surface of the honeycomb body and penetrates inward through multiple layers of adjacent laminated or coiled metal bands, and a metal wire is disposed in the through hole; and/or, a part of the laminated or coiled metal bands on the first surface and/or the second surface are embedded, overlapped and engaged with adjacent metal bands to form an embedded member.

A method of assembling multiple low NO.sub.x burners including the step of assembling multiple bodies, each body including a multiple first burner ports connected to a first burner inlet and multiple second burner ports connected to a second burner inlet. The method also including the step of selecting one of the bodies and inserting a first inlet tube into the second burner inlet to provide a fuel/air mixture to the second burner ports at a first rate. The method also including the step of selecting one of the bodies and inserting a second inlet tube into the second burner inlet to provide the fuel/air mixture to the second burner ports at a second rate different than the first rate.

A laminar flow jet for a surface mix gas burner that provides increased stability, adjustability, and control over flame chemistries and characteristics. The present invention utilizes a novel shape, typically created by a tube having a cross-sectional shape and inserting it into a faceplate cutout, or conduit, having another cross-sectional shape. This nesting of one shape inside another promotes laminar gas flow and produces desired effects. Tubes may also be placed under the faceplate provided they maintain fluid communication with the conduits. Further, a burner is constructed with adjacent gas delivery tubes of different cross-sectional shapes which are mechanically held in place radially. The tubes touch in a longitudinal direction at points along their respective inner and outer dimensions, achieving axial alignment and preserving the necessary laminar gas flow. This configuration greatly speeds manufacturing time which allows production of economical burners even when a greater number of jets is desired.

A component of a gas burner or an item to be placed over and/or in proximity of a gas burner, includes a core of fused silica glass and at least one coating comprising an electric conductive material.

Disclosed is a low NOx premixed hydrogen burner including: a plenum chamber including an inlet pipe and an outlet pipe and for mixing hydrogen and combustion air introduced through said inlet pipe to generate premixed gas for flame formation, in which a diameter of said plenum chamber is larger than diameters of said inlet pipe and the outlet pipe, and a length of said plenum chamber is greater than the diameter of said plenum chamber.

A portion of a submerged combustion burner is disposed into a pressure vessel. The portion of the submerged combustion burner has a welded area that has a first microstructure defined by a first number of voids. The vessel is filled with an inert gas, pressurized, and heated. Pressurizing and heating operations are performed for a time and at a temperature and a pressure sufficient to produce a second microstructure in the welded area of the burner. The second microstructure is defined by a second number of voids less than the first number of voids.

Adjustable gas grill burners are disclosed. Methods of making and using adjustable gas grill burners are also disclosed.

A gas burner is provided herein. The gas burner includes a base having a Venturi element adapted to receive a gas from an injector and a duct configured to supply an air-gas mixture to said burner. A burner body is associated with the base and has a hole for passage of the air-gas mixture from the duct. A flame divider is associated with the burner body and includes a plurality of apertures to allow the air-gas mixture to exit. The base is made from a sheet that is shaped by deep drawing.