135results about How to "Diffused evenly" patented technology

A lens for light emitting lamps that use light emitting elements such as LEDs, etc., is provided. The lens has a specific surface shape for light-distribution control to achieve desired light distributions, as well as a light emitting device using said lens. On the lens surface of the light emitting side which has a double-peak shape to obtain a light distribution characteristic having long and short two axes, by possessing a straight-line part in the surface shape of the light emitting side viewed on the lens short-axis cross section, a desired smoothly-diffused light distribution having a longitudinal direction with a certain width is obtained. The lens may be designed to have a surface of the light emitting side comprising a collection of straight lines parallel to the lens short-axis cross section, or to have a continuous curved surface comprising a collection of straight lines parallel to the lens short axis.

The invention relates to a catalyst for a normal paraffin hydroisomerization reaction and a preparation method as well as an application thereof. The catalyst has the characteristics that the activity is high in an n-hexane hydroisomerization reaction, and the selectivity and stability are good for a double-branched-chain product. The catalyst comprises modified zeolite molecular sieve ZSM-12 treated by alkaline solution and noble metal of family VIII, wherein the zeolite molecular sieve ZSM-12 adopts zeolite molecular sieve ZSM-12 containing organic amine template. The preparation method of the catalyst comprises the following steps of: desilication of zeolite molecular sieve ZSM-12 containing template after being treated with alkaline solution to obtain zeolite molecular sieve ZSM-12 with high content of mesoporous, and preparing isomerized catalyst by loading Pt. The catalyst is applied in the normal paraffin hydroisomerization reaction, when the catalyst is applied, the n-hexane hydroisomerization reaction is carried out on a fixed bed miniature reactor, the reacting raw material n-hexane is fed into the reactor by a force pump, and is contacted with the catalyst to react in the reactor after being mixed with hydrogen in a mixer.

The invention relates to a preparation method of a graphene nano-fiber and super-capacitor application of the preparation method of the graphene nano-fiber. The preparation method of the graphene nano-fiber includes the following steps: (1) an electrostatic spinning method is utilized to prepare a polymer fiber; (2) the polymer fiber obtained by the method is conducted with stabilizing treatment in appropriate temperature and in an oxygen-bearing atmosphere; (3) the fiber after the stabilizing treatment is conducted with carbonization thermal treatment in an NH3-bearing atmosphere and in appropriate temperature. The surface of the prepared graphene nano-fiber is provided with a graphene sheet which grows along the radial direction, and the thickness of the graphene sheet is 1 to 10 atomic layers. The graphene nano-fiber integrates the advantages of graphene and carbon nanofibers, solves the problems of graphene agglomeration and recrystallization, is high in surface activity and has various application values. The graphene nano-fiber is utilized to serve as a super-capacitor of electrode material preparation. Therefore, compared with the prior art, the preparation method of the graphene nano-fiber and the super-capacitor application of the preparation method of the graphene nano-fiber have good performance. The working voltage reaches 1.8-2.2 volts; the energy density reaches 41.3 watt hour/kilogram; and the specific capacitance in acid can reach 300 F/g.

The invention relates to a macroporous noble metal-loaded catalyst with metal oxide as a carrier and for purifying soot exhausted by diesel and a preparation method thereof. The invention firstly provides an oxidation catalyst for combustion of soot particles exhausted by diesel vehicles. The catalyst is obtained by taking the simple metal oxide or composite metal oxide which contains more than one of rare earth metals, transition metals and alkaline metals and has three-dimensionally ordered macroporous structure as a carrier and loading the noble metal active ingredient, wherein the simple metal oxide is any one of metallic elements; the composite metal oxide is perovskite or perovskite-like composite metal oxide; the noble metal active ingredient is gold; and the mean size of the macropores in the carrier is 50nm-1mu m. The catalyst conduces to diffusion of the soot particles in the pore canal, improves the use ratio of the active surface area and greatly reduces the combustion temperature of the soot particles. The invention also provides the preparation method of the catalyst.

The invention discloses a Cu-Zn catalyst, a precursor, a preparation method and an application thereof. The Cu-Zn catalyst takes a mesoporous molecular sieve as a carrier to load active components comprising cuprum and zinc. The preparation method comprises the following steps: the mesoporous molecular sieve is added into a water solution holding cuprum ions and zinc ions for soaking, filtered to obtain solid filter cakes which are mixed with a bonder and a bonding aid for prilling, then dried, roasted and cooled, thus obtaining the precursor of the Cu-Zn catalyst of the invention, or the mesoporous molecular sieve also can be mixed with the bonder and the bonding aid for prilling, added to the water solution holding the cuprum ions and the zinc ions for soaking, then dried, roasted and cooled. The precursor of the Cu-Zn catalyst of the invention is deoxidized in a reduction atmosphere to obtain the Cu-Zn catalyst of the invention. The Cu-Zn catalyst of the invention not only has good catalyzing efficiency, but also has good stability, high catalytic activation and relatively long service life, thus being able to be applied to the reaction of high temperature and high pressure catalytic hydrogenation of fatty acid ester or the preparation of fatty alcohol by hypercritical catalytic hydrogenation.

The invention relates to a high heat radiating circuit substrate and a manufacturing method thereof. The high heat radiating circuit substrate comprises a conducting wire layer, an insulating layer and a graphite heat conducting layer, wherein at least one electronic component can be arranged on the conducting wire layer, and wires are arranged on the conducting wire layer for connecting the electronic component; the insulating layer is positioned at one side of the conducting wire layer; and the graphite heat conducting layer is arranged at one side of the insulating layer and can uniformly radiate the heat generated by the electronic component. The manufacturing method of the high heat radiating circuit substrate comprises the following steps: firstly, using a metallic substance or an alloy thereof to manufacture the conducting wire layer; secondly, forming at least one wire on the conducting wire layer; thirdly, using an insulating substance to manufacture the insulating layer; andfourthly, jointing the graphite heat conducting layer to the other side of the insulating layer. Since the heat conducting layer of the high heat radiating circuit substrate and the manufacturing method thereof use the graphite material, not only the manufacturing cost can be reduced, but also the heat can be radiated uniformly to increase the heat radiating rate, and the like.

The invention relates to a preparation method of a carbon-coated porous nano lithium iron phosphate material and a lithium ion battery taking the material as an anode material. The problems that the existing lithium iron phosphate material is poor in conductivity and poor in mass production uniformity, and a performance is poor when a lithium ion battery taking the material as an anode material conducts high multiplying power charging and discharging are solved. The method comprises the steps of 1, weighing; 2, dispersing; 3, preparing a precursor; 4, preparing an intermediate product; 5, preparing a secondary intermediate product; 6, calcining the products; and 7, obtaining the carbon-coated porous nano lithium iron phosphate material. The lithium ion battery taking the material as the anode material consists of an anode plate, a cathode plate, a separation film and an aluminum plastic composite film. The conductivity of the lithium iron phosphate material prepared with the method is improved; the product uniformity is good; and the lithium ion battery taking the material as the anode material is good in performance.

The invention provides a far-infrared-ray non-radiative electric hair drier. The far-infrared-ray non-radiative electric hair drier comprises a shell, an air blowing device, a mica frame, a non-radiative heating device, a motor and a fan blade, wherein the mica frame is connected into the shell; the air blowing device is connected to an air outlet of the shell and is arranged at one end of the mica frame; the non-radiative heating device is connected to the mica frame and comprises a honeycomb ceramic heating body which is connected in the mica frame and can release far-infrared rays; the honeycomb ceramic heating body is connected with a negative-ion generator; and the motor is connected to the other end of the mica frame; and the fan blade is connected with the motor. The far-infrared-ray non-radiative electric hair drier provided by the invention has the advantages that the honeycomb ceramic heating body is arranged on the mica frame, heats when being electrified, is non-radiative to a human body and can not burn the human body due to constant temperature, and the released far-infrared rays can play a role in increasing blood circulation of the human body; and negative ions generated by the negative-ion generator are obvious in hair-protecting effect, and have the effects of physiotherapy and health care to the human body.

The invention discloses a method for preparing an aluminum oxide template by step decompression reaming. The method comprises the steps as follows: 1) taking a polished aluminum foil as an anode and a platinum electrode as a cathode, placing the anode and the cathode into an acidic electrolytic solution, connecting a power supply, and carrying out anodic oxidation for 1-5 h for the first time; 2) after the anodic oxidation for the first time, removing an aluminum oxide film on the surface of the anode, and carrying out anodic oxidation for 1-5 h for the second time; 3) after the anodic oxidation for the second time, carrying out step decompression treatment by reducing the voltage between the anode and the cathode at a speed of 0.5-3 V/min and disconnecting the power supply until the voltage is reduced to be less than 16 V; and 4) after the step decompression treatment, cleaning the aluminum foil, placing into a reaming solution, and reaming for 10-60 min. According to the method, the baffle layer thickness of the aluminum oxide template and the length and diameter of template holes can be accurately controlled; and the needed equipment is simple, the operation process is convenient, and the parameters are easy to control.

The invention relates to a display element and a manufacturing and reworking method thereof. The manufacturing method of the display element comprises the following steps: firstly, a sistor baseplate, a colored filter plate baseplate, frame gel and liquid crystal are provided; subsequently, the frame gel is coated over the sistor baseplate or the colored filter plate baseplate; the frame gel defines a containing space; then the liquid crystal is filled into the containing space; subsequently, the sistor baseplate and the colored filter plate baseplate are assembled; then the frame gel is solidified; then the sistor baseplate and the colored filter plate baseplate are rotated to be used for diffusing the liquid crystal.

The invention relates to the technical field of display, in particular to an array substrate and a display device. The array substrate is provided with a display area and a peripheral wiring area arranged on at least one side of the display area, and the display area comprises a thin film transistor and a common electrode which are formed on a substrate; the peripheral wiring area comprises a first lead, a gate signal line and a common signal line which are formed on the substrate; the first lead is arranged on the same layer as the gate of the thin film transistor and electrically connected with the gate; the gate signal line is located on the side, away from the substrate, of the first lead and electrically connected with the first lead through the first switching structure. The common signal line is located on the side, deviating from the substrate, of the first lead and located on the side, close to the display area, of the gate signal line, and the common signal line is electrically connected with the common electrode. The first switching structure is located on the side, away from the display area, of the common signal line. According to the scheme, the yield of display products is improved.

The invention discloses a positive electrode of a lithium-manganese button cell and a preparation method of the positive electrode. The positive electrode comprises the following positive active materials of manganese dioxide, graphite, acetylene black and polytetrafluoroethylene, wherein the manganese dioxide is subjected to high-temperature heat treatment, and alpha-MnO2 and gamma-MnO2 crystal structures contained in the manganese dioxide are transformed into a gamma-MnO2 and beta-MnO2 mixed crystal structure, so that the ratio of the beta-MnO2 crystal structure in the mixed crystal structure reaches 60-80%, the content of crystal water in the manganese dioxide is also correspondingly reduced, the activity of the manganese dioxide subjected to heat treatment is greatly strengthened and the capacity and the high-current discharge capacity of the cell are greatly improved.

The invention discloses a hydrodesulfurization catalyst and application thereof. The catalyst has the advantages of large pore volume, large pore diameter, high porosity, reasonable pore distribution, large pores on the outer surface, and good pore penetrability. The catalyst is used for desulfurization reaction in a residual oil fixed-bed hydrogenation method, and is used for demetalization reaction in the process of desulfurization. The metal asphaltene and asphaltene micelle contained in residual oil can be dispersed into the pores of the catalyst, so the separated metals are uniformly deposited on the whole catalyst bed layer, the pore utilization ratio is improved, and long-term operation of the catalyst is kept.

In a non-aqueous electrolyte battery having a positive electrode ( 1 ), a negative electrode ( 2 ), a separator ( 3 ), and a non-aqueous electrolyte, an electrolyte diffusion restricting layer ( 11 ) for restricting diffusion of the electrolyte is formed between the positive electrode ( 1 ) and the separator ( 3 ) to accelerate deterioration of the positive electrode, and an electrolyte diffusion promoting layer ( 21 ) for promoting diffusion of the electrolyte is formed between the negative electrode ( 2 ) and the separator ( 3 ) to hinder deterioration of the negative electrode.

The invention discloses underground heat-gas co-production gasification equipment, and a coal field fire area leading edge treatment system and method. The equipment comprises a drill hole formed in the boundary of a fire area; a heat extraction device, a liquid carbon dioxide fracturing and anti-reflection device and a liquefied gas ignition device are mounted in the drill hole; a gasification liquid oxygen conveying sleeve, a gas collecting sleeve and a liquid carbon dioxide conveying heat insulation sleeve are arranged in an annular ultra-long gravity assisted heat pipe side by side; meanwhile, the device further comprises a fixing support plate for fixing and sealing various sleeves, and a drilling combined sleeve is integrated. The edge of the fire area is drilled into the coal bed and cracked, and underground heat-fracturing is carried out; the gas co-production gasification equipment can be used for gasifying a coal bed within a certain range on the inner wall of the drilled hole, and utilizing heat energy in the gasification process and collecting gasification products; and finally, a fire area leading edge partition area is formed, the development of coal fire is blocked,an important role is played in treatment and planning of the large-area coal field fire area, the application prospect is wide, and huge economic benefits can be brought to national energy exploitation.

The invention discloses lightweight aggregate concrete and a preparation method thereof, wherein the lightweight aggregate concrete comprises, by weight, 300-400 parts of cement, 45-70 parts of mineral powder, 700-740 parts of sand, 420-470 parts of lightweight aggregate, 160-178 parts of water, 55-72 parts of fly ash, 5-9 parts of a water reducing agent, and 0.04-0.12 part of an air entraining agent. According to the present invention, with the lightweight aggregate concrete, the weight of the structure can be reduced, and the frost resistance durability of buildings built in cold regions canbe improved.

The invention provides an efficient reaction kettle. The efficient reaction kettle comprises a stainless steel kettle body, a motor and a stirring paddle; an upper part of the kettle body is provided with a kettle cover, which is provided with a feed inlet; a lower part of the kettle body is provided with a discharge hatch; the stirring paddle is arranged in an axle center of the kettle body; a rotating shaft of the stirring paddle is mechanically connected with the motor arranged on the kettle cover; the stirring paddle is screw type or blade type; and blades of the stirring paddle is made of corrosion resisting and insulating material; front side and back side of each blade are covered with stainless steel; each blade is provided with copper coil therein. The invention employs a heat-generating body in the blades, so that heat is irradiated to the materials uniformly, and a yield is increased; meanwhile, electromagnetic field eddy current principle is utilized to generate heat to realize high efficiency; As the whole stirring paddle is arranged in the stainless steel reaction kettle, electromagnetic wave does not leak to realize safety and a near 100% thermal efficiency.

The invention discloses an efficient purifying method for exhausted tail gases from firing of gangue baked bricks in a portable tunnel kiln. The efficient purifying method comprises the following process steps of stacking raw materials: stacking green gangue bricks and limestone in an annular kiln bottom between annular tracks of the portable tunnel kiln; roasting the green gangue bricks and the limestone in the kiln to desulfurize: roasting the green gangue bricks and the limestone in an arc kiln body according to a certain temperature raising procedure, and performing primary desulfurization by high-temperature roasting; performing wet flue gas desulfurization: feeding the calcined limestone into a desulfurizing liquid adjusting pool, and adjusting the basic strength in the adjusting pool; introducing tail gases in the kiln body into a desulfurizing tower, sprinkling the desulfurizing liquid in the desulfurizing liquid adjusting pool into the desulfurizing tower, and performing secondary desulfurization by a chemical reaction generated in the desulfurizing tower. According to the efficient purifying method disclosed the invention, by the adoption of a combined desulfurization method of desulfurization by roasting in the kiln and the wet flue gas desulfurization, the problems of desulfurization and purification of the tail gases in the portable tunnel kiln are successfully solved; meanwhile, energy sources can be saved, and the purification cost is reduced.