9 results about "Lighter fuel" patented technology

1. The name of the design product: porcelain cup (square). 2. The use of the design product: for lighter fuel head accessories. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: design 1 perspective view. 5. Design 1 is designated as the basic design.

The utility model relates to the technical field of lighter quick disassembly buckles, and discloses a lighter fuel bin quick disassembly buckle which comprises a lighter shell, a fuel tank is slidably connected to the right side of the interior of the lighter shell, a supporting block is fixedly connected to the bottom of the fuel tank, and the right side of the top of the supporting block is communicated with a rubber pipe. A fuel pipe is slidably connected to the inner wall of the rubber pipe, a positioning block is fixedly connected to the upper middle portion of the inner wall of the fuel pipe, a sealing plug is arranged at the bottom of the right side of the fuel tank, a limiting rod is fixedly connected to the upper middle portion of the sealing plug, and a first spring is slidably connected to the lower middle portion of the outer wall of the sealing plug. And the bottom of the sealing plug is fixedly connected with a limiting frame. According to the utility model, the buckling connection of the fuel bin of the lighter is realized, the quick disassembly and assembly are realized, meanwhile, the tight connection is ensured, the fuel leakage is prevented, the maintenance and fuel supplement of the fuel bin are facilitated, and the convenience and safety of the use of the lighter are improved.

A lighter comprises a housing having a nozzle, wherein the housing is adapted to receive a gas and / or fuel reservoir device. The lighter comprises a connecting device, wherein the connecting device is configured to couple the gas and / or fuel reservoir device to the nozzle. The connecting device is adjustable along a longitudinal axis of the lighter.

The present application relates to a kind of high-efficiency biomass energy-saving hot blast stove, including furnace shell, the inside one side of the furnace shell is longitudinally provided with hearth, the inner bottom of the hearth is horizontally provided with grate, the lower portion of the grate is communicatedly provided with ash channel, the bottom of the hearth is close to the side of the furnace shell and is provided with feeding assembly, the top of the hearth is laterally communicatedly provided with flue gas passage away from the feeding assembly, the bottom surface of the flue gas passage is longitudinally communicatedly provided with heat exchange component, and the top surface of the flue gas passage is provided with air extraction component;The top surface of the grate is axially provided with primary oxygen supply mechanism;The upper middle portion of the hearth is axially suspended with secondary oxygen supply mechanism.The primary oxygen supply mechanism arranged in the inner bottom of the hearth can continuously supply oxygen to assist combustion in the initial stage of biomass fuel combustion;The secondary oxygen supply mechanism arranged in the upper middle portion of the hearth can supply oxygen again to assist combustion, so that the lighter fuel sucked up is fully combusted, and environmental pollution is effectively reduced.

The invention discloses a control method and system for intelligently adjusting the fuel gas pressure of an incandescent light, and relates to the technical field of incandescent light control. S1, a fuel gas main pipe, a plurality of incandescent light fuel gas branch pipes and a plurality of incandescent light bodies are communicated, and pressure transmission devices and pressure adjusting devices are arranged at the front ends of the incandescent light bodies; s2, the pressure transmission device and the pressure adjusting device are linked with each other, and a normal pressure value in the fuel gas branch pipe of the incandescent light is set; and S3, the pressure transmission device collects the fuel gas pressure in the fuel gas branch pipe of the corresponding incandescent light in real time and generates a pressure signal. Pressure signals in a fuel gas branch pipe are collected in real time through a pressure transmission device, proportional, integral and differential operation is conducted on pressure errors through a pressure signal control system, accurate control signals are generated, a pressure adjusting device is driven to dynamically adjust the opening degree of a valve, and it is ensured that the pressure is rapidly stabilized within a normal range; and abnormal burning of the incandescent light caused by pressure fluctuation is effectively avoided.

The invention provides a multistage bed fuel reactor for chemical looping gasification of solid fuel, and aims to strengthen mixing, reaction and separation of high-density-difference fuel and oxygen carrier particles. The fuel reactor is composed of a bubbling bed, a central lifting pipe, an oxygen carrier separation area, a cyclone separator and a material returning system. The bubbling bed at the bottom is used as a primary reaction zone and provides longer retention time to promote sufficient gasification of the solid fuel; and a secondary reaction area is formed by the central lifting pipe under the action of high-speed airflow, so that the rapid fluidization reaction of the fuel and the oxygen carrier is realized. And after the mixed particles enter the expanded oxygen carrier separation area, effective separation of the light fuel and the heavy oxygen carrier is realized by reducing the flow rate. The reduced oxygen carrier enters an air reactor for regeneration, and unreacted fuel is subjected to cyclone separation and then returns to the bubbling bed for continuous reaction. The reactor improves the particle circulation efficiency while prolonging the reaction retention time, is beneficial to improving the gasification efficiency and realizing the self-heating operation of the system, and is suitable for fuels such as biomass and coal.

The invention relates to the technical field of coal tar hydrogenation, and particularly discloses a method for producing high-cetane-number light fuel oil through coal tar hydro-upgrading. The method comprises the following steps: performing centrifugal deslagging pretreatment on a coal tar raw material, mixing the coal tar raw material with a core-shell structure nano composite material, and performing continuous flow microwave program temperature control pretreatment; then solid-liquid and gas-liquid separation is carried out, a liquid phase sequentially enters a two-section fixed bed hydrogenation system, the first section is subjected to molecular sieve adsorption purification and preliminary hydrogenation, and the second section is in contact with a high aromatic hydrocarbon saturation catalyst for deep hydrogenation saturation and light conversion; and finally, carrying out gas-liquid separation and fractionation to obtain the high-cetane-number light fuel oil. Through the synergistic effect of microwave pretreatment and two-stage gradient hydrogenation, the problems that heavy components of coal tar are difficult to treat and a catalyst is prone to inactivation are solved, deep impurity removal and oriented regulation and control of hydrocarbon structures are achieved, the product quality is improved, the process is efficient and stable, efficient utilization of coal tar resources can be achieved, and the method is suitable for industrial production.

Systems and methods for producing a wash oil using a light fuel oil (e.g., cracked distillate) are disclosed. The methods include hydrogenating the cracked distillate and separating the hydrogenated cracked distillate to remove C4 to C6 hydrocarbons to produce the wash oil.

The invention relates to the technical field of coal tar hydrogenation, and particularly discloses a deep denitrification method for preparing light fuel oil by coal tar hydrogenation. The method comprises the following steps: carrying out filtration, dehydration, demetallization and deasphaltene pretreatment on coal tar, and carrying out a first-stage hydrogenation reaction in the presence of a conventional catalyst; feeding the mixture into a second hydrogenation reactor filled with an N-P co-doped ordered mesoporous carbon loaded Zr < 3 + > doped Ni2P catalyst, and carrying out hydrocracking and oxygen introduction assisted in-situ regeneration; and finally, carrying out deep adsorption through a nitric acid modified ZSM-5 and aluminum oxide composite adsorbent to obtain the light fuel oil. According to the invention, a multi-stage synergistic process of step-by-step impregnation and in-situ regeneration of the catalyst and B-Si dual auxiliaries and deep denitrification of the composite adsorbent is adopted, so that the hydrodenitrification activity and the catalyst stability are enhanced, the total nitrogen content of the product is effectively reduced, and the yield of light fractions of gasoline and diesel oil is improved. The method is high in denitrification depth, long in catalyst service life, capable of achieving efficient resource utilization of coal tar and suitable for industrial production.