28 results about "Gas flare" patented technology

Systems and devices for igniting a gas to be flared include: a body having an inlet and an outlet, the body defining a channel extending between the inlet and the outlet; an igniter operable to generate a spark at the outlet of the body; an actuator disposed in the channel, the actuator configured to harvest energy when the gas to be flared flows from the inlet to the outlet through the channel and transfer the energy to the igniter.

This invention discloses a method for cooling and depressurizing a large LNG storage tank after long-term quiescence, relating to the field of LNG storage tank technology. The method includes the following steps: filling detection, valve detection, spray control, pressure display, pipeline control, temperature and pressure detection, and valve closure. Before resuming LNG transport, this invention uses a pre-cooling pipeline and spray device to pre-cool the LNG storage tank, reducing the temperature and pressure of the top gas phase space. In the early stages of spraying, the pressure of the LNG storage tank tends to decrease. When the tank pressure drops to a certain value, the vaporization of the LNG entering the tank causes the pressure to rise. Before the LNG tank pressure begins to rise, a BOG compressor needs to be started to extract BOG gas from the LNG storage tank. At this time, the pressure of the LNG storage tank is low, and the temperature of the top gas is reduced, thereby achieving control of the tank pressure before resuming transport after a long period of quiescence, and reducing the time required to start the BOG compressor and the amount of BOG gas flare.

The invention relates to an exhaust gas burner (10) for an exhaust gas aftertreatment system (1) of an internal combustion engine (2), comprising a housing (22), in which a combustion chamber (11) is formed, in which a mixture of an oxygen-containing gas and fuel can be burned to form a heating gas, wherein at least one injection valve (12) for injecting the fuel into the combustion chamber (11) and an ignition device (14) for igniting the injected fuel are arranged on the combustion chamber (11), and wherein the combustion chamber (11) comprises a gas inlet (13) for the gas and a heating gas outlet (15) for the heating gas, wherein the heating gas outlet (15) is formed by a tubular heating gas guide (26) which projects with the heating gas outlet (15) from the housing, and comprising a fastening flange (14), assigned to the heating gas outlet (15), for connecting the exhaust gas burner (10) to an inlet pipe (25) of the exhaust gas aftertreatment system (1). According to the invention, the heating gas guide (26) has a constant cross section along the entire longitudinal extension thereof or a cross section that only widens or only tapers in the direction of the heating gas outlet (15).

A process for the reduction of flaring / venting gases during completions operations on an oil / gas well, said process comprising providing a well in need of completion; providing a system to capture oil and gas generated by the well; the system including a primary separator to separate an incoming well stream into a plurality of streams wherein a first stream is sent to a pipeline and a second stream is sent for further processing. The process further includes flowing and collecting a third stream of gas in a gas pressure vessel; compressing the collected gas in the vessel until parameters of compressed gas are compressed to provide a constant feed to the pipeline; and transferring the compressed gas to the gas pipeline wherein the process reduces the amount of gas flared and / or vented during operation by over 80%.

A gas skid is disclosed for mine gas flaring operations to safely move mine gas from existing bore holes or vents to a flare for combustion. The gas skid comprises and / or is supported (attended) by electric power systems, manual control systems, automatic electronic control systems, telecommunication devices, process and flow connections and systems and more.

A method includes obtaining gas management data from a dynamic sensor array disposed within a gas processing plant, the gas processing plant including a gas flaring system. The method further includes obtaining a set of gas management parameters, and determining, with a machine learning model, a predicted emission of the gas flaring system based on the gas management data. The method further includes determining, based on the predicted emission, an emission reduction strategy and adjusting, with a gas processing controller and a gas flaring controller, the set of gas management parameters to execute the emission reduction strategy. Executing the emission reduction strategy includes directing a portion of feed gas from the gas processing plant to the gas flaring system according to the adjusted set of gas management parameters and flaring, using the gas flaring system, the portion of the feed gas according to the adjusted set of gas management parameters.

The invention relates to an exhaust gas burner (10) for an exhaust gas aftertreatment system (1) of an internal combustion engine (2), comprising a housing (22) in which a combustion chamber (11) is formed, in which a mixture of an oxygen-containing gas and fuel can be combusted to form a heating gas, wherein at least one injection valve (12) for injecting the fuel into the combustion chamber (11) and an ignition device (14) for igniting the injected fuel are arranged on the combustion chamber (11), and wherein the combustion chamber (11) has a gas inlet (13) for the gas and a heating gas outlet (15) for the heating gas, wherein the heating gas outlet (15) is formed by a tubular heating gas guide (26) which projects from the housing along with the heating gas outlet (15), and with a mounting flange (14) associated with the heating gas outlet (15) for connecting the exhaust gas burner (10) to an inlet pipe (25) of the Exhaust aftertreatment system (1).It is intended that the flue gas duct (26) has a constant cross-section along its entire longitudinal extent or a cross-section that widens or narrows only in the direction of the flue gas outlet (15).

The application relates to a high-regulation-ratio natural gas and dimethylamine waste gas mixed combustion type low-nitrogen combustor, and belongs to the technical field of industrial waste gas combustors. The combustor comprises a wind chamber with a first air inlet; an outer air outlet pipe connected to the first end of the wind chamber; an inner air outlet pipe arranged in the inner part of the outer air outlet pipe; a gas chamber connected to the second end of the wind chamber, the gas chamber being provided with a second air inlet; an outer layer gas pipe arranged in the wind chamber and the inner air outlet pipe and used for providing natural gas; a center gas pipe penetrating through the gas chamber, the wind chamber and the inner air outlet pipe and used for providing natural gas; a dimethylamine gas pipe penetrating through the gas chamber, the wind chamber and the inner air outlet pipe and used for providing dimethylamine gas; an ignition gun penetrating through the gas chamber, the wind chamber and the inner air outlet pipe, the ignition end of the ignition gun being located in the area where the air outlet end of the inner air outlet pipe is located; and a wind volume adjusting assembly arranged on the wind chamber and used for adjusting the wind volume in a secondary air duct. The application can not only efficiently treat industrial waste gas with complex components, but also stably control the NOx emission value in flue gas at a very low level under the mixed combustion condition.

The invention relates to an exhaust gas burner (10) for an exhaust gas aftertreatment system (1) of an internal combustion engine (2), comprising a housing (22) in which a combustion chamber (11) is formed, in which combustion chamber a mixture of an oxygen-containing gas and fuel can be burned to form a heating gas, wherein at least one injection valve (12) for injecting the fuel into the combustion chamber (11) and an ignition device (14) for igniting the injected fuel (15) are arranged on the housing (22), and wherein the combustion chamber (11) has a gas inlet (13) for the gas and a heating gas outlet (15) for the heating gas, wherein the heating gas outlet (15) is formed by a tubular heating gas guide (26) which projects with the heating gas outlet (15) from the housing (22), and comprising a fastening flange (24), associated with the heating gas outlet (15), for connecting the exhaust gas burner (10) to an inlet pipe (25) of the exhaust gas aftertreatment system (1). According to the invention, the housing (22) has the fastening flange (24) at the end associated with the heating gas outlet (15) and is also radially spaced apart from the heating gas guide (26).

A methane mitigation system includes an exhaust source, a burner, an oxidation catalyst, and an electrical power generator. The exhaust source is configured to produce an exhaust gas including methane. The burner is configured to receive the exhaust gas, and use a natural gas for combustion to produce a heat of combustion that heats the exhaust gas to produce a hot exhaust gas. The oxidation catalyst is configured to receive the hot exhaust gas and convert at least a portion of the methane in the hot exhaust gas to carbon dioxide. The oxidation catalyst is configured to be heated by the hot exhaust gas, and is configured to output a methane-depleted exhaust gas. The electrical power generator is configured to receive the methane-depleted exhaust gas, convert a portion of a remaining heat from the methane-depleted exhaust gas into electrical power, and output the electrical power to an electrical load.

An exhaust system (1) for a motor vehicle (100) is provided, wherein the exhaust system (1) has an exhaust gas burner (2), wherein the exhaust system (1) has a pressure sensor (3) for sensing a flame formation in the exhaust gas burner (2). A method and a motor vehicle (100) are also proposed.

The invention relates to an exhaust gas burner (10) for an exhaust gas aftertreatment system (1) of an internal combustion engine (2), comprising a combustion chamber (11) in which a mixture of an oxygen-containing gas and fuel can be combusted to form a heating gas, wherein the combustion chamber (11) is associated with at least one injection valve (12) for injecting the fuel into the combustion chamber (11), wherein the combustion chamber (11) is associated with a gas inlet (23) for the gas and a heating gas outlet (15) for the heating gas, and wherein the gas inlet (23) is associated with a swirl device (22) through which the oxygen-containing gas enters the combustion chamber. It is provided that the swirl device (22) has at least one displaceable swirl element (25) and a controllable actuator (27) configured to displace the swirl element (25) to change a swirl factor (DF), in particular a swirl number.

The utility model belongs to the technical field of diffusion ignition devices, and particularly discloses a high-efficiency burner for converter gas diffusion ignition, which comprises a gas pipe, an inner circular burner is detachably connected onto the gas pipe, an outer circular burner is fixedly sleeved on the inner circular burner, an exhaust seat is arranged on the inner circular burner, a cavity is arranged in the exhaust seat, and the outer circular burner is fixedly sleeved on the outer circular burner. The bottom of the exhaust seat is communicated with an air inlet seat, and the top of the exhaust seat is provided with a plurality of exhaust nozzles with different lengths. In order to solve the problem that in the prior art, ever-burning fire is easy to extinguish in the gas ignition process, a plurality of exhaust nozzles with different lengths are arranged, so that the effect of stabilizing the flow of a gas outlet is achieved, a decisive effect is achieved for keeping the ever-burning fire of the gas, and the service life of the gas is prolonged. The problem that in the prior art, long open fire is prone to being extinguished in the gas ignition process is solved.

A flare bonnet for a flare burning combustible fluids. The flare bonnet can comprise a flare for burning a combustible fluid, a bonnet covering a tip of the flare, wherein the bonnet comprises at least one aperture to allow air flow, and a paddle wheel proximate each aperture to increase and direct the air flow. Increasing the air flow at the point of combustion can increase efficacy and thoroughness of combustion of the fluid by providing more oxygen. This can help gas flares to be more environmentally friendly, as well as more efficient. The paddle wheel can help to increase and direct the flow of air toward combustion.

The invention relates to a drive device (1) for a motor vehicle, with a hydrogen combustion engine (2), in particular a reciprocating piston engine or rotary piston engine, which has at least one combustion chamber (10) to which a first injection valve (12) for the direct or indirect injection of hydrogen and a first ignition device (11) are assigned, with a supply system (13) with a high-pressure line (17) for supplying the hydrogen, wherein the first injection valve (12) is connected to the high-pressure line (17), and with an exhaust aftertreatment system (21) which is connected downstream of the combustion chamber (10) and has at least one exhaust aftertreatment device (22-24), in particular a catalyst or filter.The exhaust aftertreatment system (21) is provided to have an exhaust gas burner (30) with a combustion chamber (25) to which a second injection valve (26) and a second ignition device (27) are assigned, wherein the second injection valve (26) is connected to the high pressure line (17).

A pilot burner for igniting a gas flare includes a pilot gas supply line, an inspirator, a gas feed line, a pilot output and an igniter. The pilot gas supply line is configured to receive a flow of pilot gas from a pilot gas source. The inspirator receives the flow of pilot gas from the pilot gas supply line and mixes the flow of pilot gas with air to form a mixed flow of air and gas. The gas feed line receives the mixed flow from the inspirator. The pilot output is connected to the gas feed line and discharges the mixed flow. The igniter is configured to ignite the mixed flow discharged through the pilot output to form a flame. The pilot gas supply line includes a gas preheat conduit section that is positioned adjacent to the pilot output and is configured to be heated by the flame.

A process for the reduction of flaring / venting gases during completions operations on an oil / gas well, said process comprising providing a well in need of completion; providing a system to capture oil and gas generated by the well; the system including a primary separator to separate an incoming well stream into a plurality of streams wherein a first stream is sent to a pipeline and a second stream is sent for further processing. The process further includes flowing and collecting a third stream of gas in a gas pressure vessel; compressing the collected gas in the vessel until parameters of compressed gas are compressed to provide a constant feed to the pipeline; and transferring the compressed gas to the gas pipeline wherein the process reduces the amount of gas flared and / or vented during operation by over 80%.

A method can include receiving data that include satellite data of a region of interest where the region of interest includes multiple hydrocarbon production sites that include gas flaring equipment, identifying one or more unlit gas flares at one or more of the multiple hydrocarbon production sites by using a trained machine learning model and at least a portion of the data and, for an unlit gas flare, issuing an instruction related to operation of the gas flaring equipment in the region of interest.

The invention relates to a drive unit (1) for a motor vehicle, comprising a hydrogen combustion engine (2), in particular a reciprocating piston engine or rotary piston engine, which has at least one combustion chamber (10) to which a first injection valve (12) for the direct or indirect injection of hydrogen and a first ignition device (11) are assigned, a supply system (13) with a high-pressure line (17) for supplying the hydrogen, wherein the first injection valve (12) is connected to the high-pressure line (17), and an exhaust aftertreatment system (21) which is connected downstream of the combustion chamber (10) and comprises at least one exhaust aftertreatment device (22-24), in particular a catalyst or filter. It is provided that the exhaust aftertreatment system (21) comprises an exhaust gas burner (30) which is controlled depending on partial load operation of the hydrogen combustion engine.

The invention relates to a high-regulation-ratio natural gas and dimethylamine waste gas co-combustion type low-nitrogen burner, and belongs to the technical field of industrial waste gas burners. The high-regulation-ratio natural gas and dimethylamine waste gas co-combustion type low-nitrogen burner comprises an air chamber provided with a first air inlet; the outer air outlet pipe is connected to the first end part of the air chamber; the inner air outlet pipe is arranged in the outer air outlet pipe in a penetrating manner; the air chamber is connected to the second end part of the air chamber, and a second air inlet is formed in the air chamber; the outer-layer air pipe penetrates through the air chamber and the inner air outlet pipe and is used for providing natural gas; the central gas pipe penetrates through the gas chamber, the air chamber and the inner air outlet pipe and provides natural gas; a dimethylamine gas pipe penetrates through the gas chamber, the air chamber and the inner air outlet pipe and provides dimethylamine gas; the ignition gun penetrates through the air chamber, the air chamber and the inner air outlet pipe, and the ignition end of the ignition gun is located in the area where the air outlet end of the inner air outlet pipe is located; according to the industrial waste gas treatment device, industrial waste gas with complex components can be efficiently treated, and the emission value of NOx in flue gas can be stably controlled to be at the extremely low level under the co-combustion working condition.

The present disclosure provides systems, apparatuses, methods, and computer program products for gas torch discrimination. An example gas torch discrimination system may include at least one gas detection sensor and at least one controller component. In some embodiments, the controller component is configured to obtain image data of a target area. In some embodiments, the controller component is configured to generate gas channel data by applying the image data to an acquisition model. In some embodiments, the controller component is configured to generate gas feature data by applying the gas channel data to a feature extraction model. In some embodiments, the controller component is configured to generate a gas torch identification mark by applying the gas characteristic data to a gas torch discrimination model. In some embodiments, the controller component is configured to initiate execution of one or more gas torch response actions based at least in part on the gas torch identification flag.

Example flare gas capture apparatus, control, and associated methods are disclosed herein. An example apparatus includes a fluid evacuation system operatively coupled to a gas flare line to evacuate gas from the gas flare line, and a valve operatively coupled to the gas flare line downstream of the fluid evacuation system and upstream of a vent of the gas flare line, the valve movable between a first position and a second position based on a pressure of the gas, the valve to restrict flow of the gas to the vent in the first position, the valve to enable the flow of the gas to the vent in the second position.

The invention relates to an exhaust gas burner device (100) for an exhaust aftertreatment system of a vehicle and to a method carried out with such a device. The exhaust gas burner device (100) comprises a fuel supply device (20) for introducing fuel into a combustion chamber (50), an air supply device (30) for supplying intake air to the combustion chamber (50), and an ignition source (10) for igniting a fuel / air mixture introduced into the combustion chamber (50) by means of the fuel supply device (20) and the air supply device (30), which burns as a combustion flame in the combustion chamber (50). It is further provided that the exhaust gas burner device (100) comprises a baffle element (P) arranged in the combustion chamber (50), which deflects and breaks up a fuel jet within the combustion chamber (50).

The present invention relates to an exhaust gas burner system (10) for a motor vehicle (100), the exhaust gas burner system (10) comprising an exhaust gas burner device (20) for exhaust gas temperature control, a temperature control device (22) for temperature control of the exhaust gas burner device (20), a storage interface (52) for fluid communication between the exhaust gas burner system (10) and a storage device (50) for storing fuel (102), a drive interface (40) for fluid communication between the exhaust gas burner system (10) and a drive device (110) of the motor vehicle (100), and at least one conveying device (30), wherein the at least one conveying device (30) is configured to convey the fuel (102) from the storage interface (52) to the exhaust gas burner device (20), to the temperature control device (22), and / or to the drive interface (40).wherein the temperature control device (22) comprises an inlet device (24) for supplying fuel (102) to the temperature control device (22) and an outlet device (26) for draining fuel (102) from the temperature control device (22), and the temperature control device (22) is configured for heat exchange between the exhaust gas burner device (20) and the fuel (102). The invention further relates to a motor vehicle (100), an exhaust gas burner device (20), and a temperature control method (200).

The utility model provides a flue gas circulation oxygen-rich incineration system for nitrogenous organic waste gas and / or waste liquid, which comprises an incinerator, a combustion-supporting gas burner, a waste liquid burner and / or waste gas burner are arranged on the incinerator, the combustion-supporting gas burner is connected with a gas delivery pipe through a pipeline, and the flue gas circulation oxygen-rich incineration system further comprises a waste heat boiler connected with the incinerator through a pipeline. The waste heat boiler is connected with a flue gas conveying pipeline and a low-pressure steam or high-temperature hot water recycling conveying pipeline; a gas inlet of the flue gas drying tower is communicated with a flue gas conveying pipeline, a gas outlet of the flue gas drying tower is connected with a first output pipe, the first output pipe is connected with a first three-way valve, and the first three-way valve is respectively connected with a first conveying pipe and a second conveying pipe; the oxygen supply unit is connected with a mixer through a pipeline, the mixer is connected with a first conveying pipe, and an outlet of the mixer is connected with the combustion-supporting gas burner, the waste liquid burner and / or the waste gas burner through pipelines. According to the utility model, the heat utilization rate is improved, and the flue gas denitration cost is reduced.

The invention relates to a method for operating an internal combustion engine (10) with an exhaust system (20) in which an exhaust gas burner (50) is arranged. The exhaust gas burner (50) is connected via a burner channel (66) to an inlet point (68) at which hot burner exhaust gas from the exhaust gas burner (50) can be introduced upstream of at least one exhaust gas aftertreatment component (28, 32, 38) arranged in the exhaust system (20), wherein an exhaust gas flap (46, 69) is arranged downstream of a combustion chamber (52) of the exhaust gas burner (50).The method comprises the following steps: - Closing the exhaust flap (46, 69) to increase the pressure in the combustion chamber (52) of the exhaust burner (50), - Starting the exhaust burner (50), wherein air is supplied to the combustion chamber (52) of the exhaust burner (50) via an air supply (62) and fuel via a fuel supply (54), whereby - an ignitable fuel-air mixture is formed in the combustion chamber (52) of the exhaust burner (50) and ignited by an ignition device (78), - Opening the exhaust flap (46, 69) when stable combustion of the fuel (96) supplied to the combustion chamber (52) of the exhaust burner (50) via the fuel supply (54) is ensured. The invention further relates to an internal combustion engine (10) for carrying out such a method.

A fuel-fired burner 100 is presented that includes a combustion air inlet 113 coupled to a combustion air nozzle 136 at an input end of a second chamber 152 within a burner housing 110 for receiving combustion air, the second chamber spaced apart from a third chamber 168 within the second chamber. The combustion air nozzle 136 directs combustion air 171 into the third chamber 168. A fuel inlet 111 coupled to a burner nozzle 167 has a recirculation port 164 for receiving hot exhaust gas provided to an exhaust gas path 165, the burner nozzle secured to a burner mounting plate 161. A jet pump positioned entirely within the burner housing is configured for receiving hot exhaust gas from the exhaust gas path. The jet pump operates by flowing combustion air through the combustion air nozzle 136 that draws hot exhaust gas through the recirculation port into the exhaust gas path and then into a gas mixing zone 178 for mixing the hot exhaust gas and combustion air.

The invention relates to an exhaust gas burner (10) for an exhaust gas aftertreatment system (1) of an internal combustion engine (2), with a combustion chamber (11) in which a mixture of an oxygen-containing gas and fuel can be combusted to form a heating gas, wherein the combustion chamber (11) is assigned at least one injection valve (12) for injecting the fuel into the combustion chamber (11) and an ignition device (14) for igniting the mixture, wherein the combustion chamber (11) is assigned a gas inlet (25) for the gas and a heating gas outlet (15) for the heating gas, and wherein the gas inlet (25) is assigned an air guide device (13) which has an air guide channel (22) at one end of which a particularly rigid swirl device (24) is arranged, through which the gas enters the combustion chamber (11).It is provided that the air guidance device (13) upstream of the swirl device (24) has at least one air guidance element (29) in the air guidance channel (22) which is adjustable at least in such a way that, depending on the position of the air guidance element (22), the oxygen-containing gas hits the swirl device (24) in a uniformly or unevenly distributed manner.