232results about How to "Large discharge area" patented technology

A light emitting element has: a semiconductor layer having a light-emitting layer; a first electrode; a second electrode; an insulation layer that is formed on a mounting face side of the semiconductor layer; and a first terminal and a second terminal that are formed on a surface of the insulation layer corresponding to the first electrode and the second electrode, respectively. The first electrode and the second electrode are formed on the mounting face side of the semiconductor layer. The insulation layer has a first opening and a second opening, and the first electrode and the second electrode are electrically connected through the first hole and the second hole, respectively, to the first terminal and the second terminal.

An active matrix display device is provided in which parasistic capacitance or the like is suppressed by forming a thick insulating film around an organic semiconductor film, and disconnection or the like does not occur in an opposing electrode formed on the upper layer of the thick insulating film. In the active matrix display device, first, a bank layer composed of a resist film is formed along data lines and scanning lines. By depositing an opposing electrode of a thin film luminescent element on the upper layer side of the bank layer, capacitance that parasitizes the data lines can be suppressed. Additionally, a discontinuities portion is formed in the bank layer. Since the discontinuities portion is a planar section which does not have any a step due to the existence of the bank layer, disconnection of opposing electrode does not occur at this section. When an organic semiconductor film is formed by an ink jet process, a liquid material discharged from an ink jet head is blocked by the bank layer.

The invention discloses an underground multi-stage intelligent high pressure gas pulse formation fracturing device and a method thereof, belongs to the technical field of fracturing completion of oil and gas wells, and particularly relates to two technical sachems of the device and the method. The method is used for fracturing the underground layer by the underground multi-stage intelligent high pressure gas pulse formation fracturing device. The device is controlled by each stage of intelligent pressure encoding detonator to gradually detonate by stages at proper time to generate a large amount of high pressure gas according to the set working mode, the dynamic high pressure pulse pressure is formed in the well or holes of a formation, the formation is fractured to form a plurality of cracks, and the permeability of fluid in the formation is increased, so the oil and gas are easily produced. The device and the method have the advantages that the cyclic multiple pressure pulses which are controlled at proper pressure can be generated, so the formation can generate the compression-expansion-compression alternating 'resonance', the cracks are promoted to effectively extend, and a new fracturing network is formed, so the permeability of the formation is improved; the pollution to the formation and environment in the fracturing process is avoided; the method is suitable for the water-sensitive and acid-sensitive formation; the construction cycle is short, the cost is low, the equipment is simple and convenient, and the limitation by terrain and water sources is avoided.

A method is provided for fabricating a light emitting diode (LED) using three-dimensional gallium nitride (GaN) pillar structures with planar surfaces. The method forms a plurality of GaN pillar structures, each with an n-doped GaN (n-GaN) pillar and planar sidewalls perpendicular to the c-plane, formed in either an m-plane or a-plane family. A multiple quantum well (MQW) layer is formed overlying the n-GaN pillar sidewalls, and a layer of p-doped GaN (p-GaN) is formed overlying the MQW layer. The plurality of GaN pillar structures are deposited on a first substrate, with the n-doped GaN pillar sidewalls aligned parallel to a top surface of the first substrate. A first end of each GaN pillar structure is connected to a first metal layer. The second end of each GaN pillar structure is etched to expose the n-GaN pillar second end and connected to a second metal layer.

A method is provided for fabricating three-dimensional gallium nitride (GaN) pillar structures with planar surfaces. After providing a substrate, the method grows a GaN film overlying a top surface of the substrate and forms cavities in a top surface of the GaN film. The cavities are formed using a laser ablation, ion implantation, sand blasting, or dry etching process. The cavities in the GaN film top surface are then wet etched, forming planar sidewalls extending into the GaN film. More explicitly, the cavities are formed into a c-plane GaN film top surface, and the planar sidewalls are formed perpendicular to a c-plane, in the m-plane or a-plane family.

Cathodoluminescent field emission display devices features a radioactive cathode emitter which is used to produce primary electron emissions to drive the FED device. Radioactive emitters eliminate the need for complex emitter structures, such as conventional Spindt cathodes. In addition, the use of a radioactive emitter allows for an "all-firm" FED, and thus represents an improvement over existing devices by reducing emitter to phosphor spacing, as well as eliminating the use of internal vacuums.

The invention relates to a pulse cavitation multiple jet nozzle, which comprises a nozzle body which is formed into an open end on one end and a jet end with a hollow cylinder on the other end, the open end is used for connecting with a fluid pipe, and the jet end is provided with a plurality of jet orifices; the central position of the jet end is provided with a central jet orifice, and a plurality of lateral jet orifices are arranged around the central jet orifice; the nozzle body is internally provided with an impeller being capable of rotating, a part of the fluid flowing into the nozzle passes through the center of the impeller and the central jet orifice to form continuous straight jet, the other part of the fluid impacts the blades of the impeller to cause the impeller to rotate so as to make flow field on the inlets of the lateral jet orifices around the central jet orifice generate regular disturbance, thus a pulse jet can be formed, vacuole can be produced, a cavitation jet can be formed, and the cavitation jet and the pulse jet are coupled to form a pulse cavitation jet to be ejected from the lateral jet orifices. The invention is simple in structure, and can greatly improve the efficiency of drilling.

The invention provides a method for forming multiple fractures by forced planar diverting of a fracture opening being temporarily plugged. The method includes: allowing temporary plugging diverting material fluid to a position near the fracture opening in a reservoir so as to form a bridge plug and force the fracture to divert, forming multiple fractures, activating micro-fractures of the reservoir with active liquid or acid liquid, and forming a multi-fracture mesh. The method according to the technical scheme has the advantages that artificial fractures in unconventional oil-gas reservoirs, such as low-permeability and ultralow-permeability oil-gas reservoirs, tight oil reservoirs and shale oil-gas reservoirs, are forced to divert in the plane, forming multiple artificial fractures having guiding ability, chances to connect reservoir bodies are increased, drainage area is enlarged, cleaning diverting material is of degradability and can fully degrade after construction, all the fractures can be utilized, and yield increase is more obvious.

Cathodoluminescent field emission display devices features an electron amplification structure for generating secondary electron emissions. The electron amplification structure includes a channel structure having a bottom wall coupled to at least one side wall, thereby defining a channel cavity, and at least one protrusion extending from the side wall into the channel cavity. Furthermore, a primary electron source or emitter is provided for generating primary electron emission into the channel cavity, whereby secondary emissions of electrons are produced when the protrusion is bombarded by electrons within the channel structure. The use of a narrow channel in the electron amplification structure reduces the possibility that a returning ion will strike the emitter, and thus decreases cathode emitter tip erosion.

The invention discloses a head injector of a low-thrust engine for electric discharge and ignition by utilizing nozzle clearance. The head injector provided by the invention comprises a high voltage positive electrode copper rod, a positive electrode wiring nut, a positive electrode insulating spacer, a seal locking nut, a seal extruding ring, a sealing pad, a casing, a sealing ring, an oxidizingagent swirler, a positive electrode insulating sleeve, an electric discharge circumferential seam adjusting block, an oxidizer nozzle outlet end cover and a fuel centrifugal nozzle. The size miniaturization of the head injector of the low-thrust engine can be realized, and because the electric discharge area of the nozzle ring seam is large and the interval can be adjusted, the spark plug single-point electric discharge fault caused by pollution can be avoided effectively.

A plasma display panel (PDP) includes a front panel, a rear panel disposed parallel to the front panel, first barrier ribs formed of a dielectric substance and disposed between the front panel and the rear panel to define a plurality of discharge cells, front discharge electrodes disposed inside the first barrier ribs so as to surround the discharge cells and spaced from the side surfaces of the discharge cells toward interiors of the first barrier ribs by an electrode-burying depth, rear discharge electrodes disposed inside the first barrier ribs so as to surround the discharge cells and spaced from the side surfaces of the discharge cells toward the interiors of the first barrier ribs by an electrode-burying depth at the rear side of the first discharge electrodes, a plurality of phosphor layers disposed inside the discharge cells for receiving ultraviolet rays and emitting visible rays, the phosphor layers having different dielectric constants, and a discharge gas filling the discharge cells. The electrode-burying depth corresponding to discharge cells in which phosphor layers having the lowest dielectric constant are formed is smaller than the electrode-burying depth corresponding to discharge cells in which phosphor layers having a relatively high dielectric constant are formed.

The invention discloses an experimental simulation device for mining hydrate based on multi-branch hole technology, which comprises a multi-branch hole mining unit, a temperature control unit, a gas injection unit, a liquid injection unit, an outlet separating and metering unit, a gas recovery unit and a data acquisiting and processing unit, the data acquisiting unit acquires relevant data of thetemperature control unit, gas injection unit and liquid injection unit and the like, and achieves the control of the temperature control unit, gas injection unit and liquid injection unit; multi layers of horizontal branch holes are arranged around through tapping at the lateral side of a central main well net, the horizontal branch holes are driven by the central main well net to jointly reduce the pressure for hydrate exploitation, the design form of the multi-branch holes is utilized to effectively increase the discharge area of the hydrate reservoir, and can completely simulate the formation of the hydrate reservoir, the layout of multi-branch holes, the pressure reduction of the multi-branch holes, the sand prevention and clogging prevention, the separation of gas-water-sand, and other processes, detailed experimental data is provided for detailed understanding of the mining efficiency and production characteristics and the like of the sea water hydrate multi-branch holes, and a theoretical basis for achieving the efficient mining, productivity evaluation, development scheme and process design optimization of the hydrate is provided.

The invention provides a contact glow discharge plasma device, connecting several anode beams together in parallel and combining them with the cathode into a plasmas 'brush', having many discharging points and large discharging region, thus increasing the current of the whole device, effectively raising degrading efficiency, and simultaneously the invention has simple structure, operating convenience, and low price, suitable to industrialize.

The invention relates to a laser discharge chamber device of a gas CO2 laser, comprising a vertical plate at the right side of the chamber, a support frame plate on the chamber, an upper insulating frame plate on the chamber, an upper electrode plate, a ceramic insulating strip, an upper preionization triggering needle, a vertical plate at the left side of the chamber, a lower discharge electrode, the air inlet of a gas circulating path, a lower electrode plate, a lower preionization triggering needle, the air outlet of the gas circulating path, an end plate at the right side of the chamber and an end plate at the left side of the chamber. The device is characterized in that the laser discharge chamber is fixedly arranged on a sealed circulating work gas passage; electrical energy is injected by an energy-storing charge-discharge circuit so that the upper discharge electrode and the lower discharge electrode realizes even glow discharge in large area; and a plurality of pairs of upper ultraviolet light preionization triggering needles and lower ultraviolet light preionization triggering needles realize spark discharge to form the laser discharge chamber of the laser. The invention has small volume and compact structure, is convenient for repairing and installing the discharge electrode and the preionization triggering needles, leads a CO2 laser system to stably work for a long time so as to extend service life, and is fit for high-power gas lasers and pulse gas lasers.

The invention provides an automotive water cooled type NTP generation system which comprises a power supply part, an NTP generator, a diesel engine system, an air inlet and outlet system and a cooling system. The power supply part comprises a diesel engine storage battery, an inverter, an intelligent electronic impact machine, a voltage regulator and an oscilloscope. The inverter inverts 12 V direct current voltage into 220 V alternating current, and then the voltage regulator and the oscilloscope are used for frequency modulation and voltage regulation. A voltage stabilizing box and an MFC are mounted on the air inlet and outlet system for accurately controlling the air inlet flow. The cooling system uses an infrared thermometer for monitoring the temperature of a discharging area in real time, the flow of a pump is controlled by a feedback circuit, and the temperature of the discharging area is controlled. Active gas generated by the NTP generator is sprayed into an exhaust pipe by a nozzle mounted on the exhaust pipe. According to the automotive water cooled type NTP generation system, not only can NOx in diesel engine exhaust gas be reduced, but also DPF regeneration can be reduced; working is stable, the concentration of a generated active substance is high, the conversion efficiency of harmful gas is high, a catalyst is not required, and the system is free from the limit of fuel quality.

The present invention provides a polymer material showing high luminous efficiency at a low voltage and suitable for increasing the emission area and for the mass production, and an organic light emitting device using the same. The present invention relates to a polymer compound comprising a boron-containing monomer unit represented by formula (1): [in the formula, A represents a triphenyl boron group in which the phenyl group may be substituted, R16 represents a hydrogen atom or an alkyl group having 1 to 12 carbon atoms. X represents a single bond, —O—, —S—, —SO—, —SO2— or a divalent hydrocarbon group having 1 to 20 carbon atoms which may have a hetero atom], a light-emitting polymer compound comprising the boron-containing monomer unit and a light-emitting monomer unit, a light-emitting composition comprising the boron-containing monomer unit and a light-emitting low-molecular compound or light-emitting polymer compound, and organic light-emitting device using the light-emit-ting polymer compound or the light-emitting composition.

The present invention relates to an ice detection / protection and flow control system based on printing of dielectric barrier discharge sliding plasma actuators. This invention has advantages such as: reduced weight, low maintenance cost, no environmental impact, fully electric operation and combination of functionalities (ice detection, deicing, anti-icing and flow control).The system comprises the following components: exposed AC electrode (1), dielectric layer (2), embedded electrode (3), sliding / nanosecond electrode (4), ground plane (5), AC power supply (6), DC power supply (7), nanosecond range pulse generator (8), monitoring capacitor (9), high voltage probe (10), control module (11), temperature sensor (12), control signal input module (13) and monitoring system (14). The system senses ice formation and generates extensive surface heating to prevent ice accumulation.

The invention discloses a plasma jet deposition film device and a method of shallowing a surface trap level. The device comprises a plasma jet array, a bubbling bottle, a second air cylinder and a power supply. The plasma jet array is arranged in a tempered glass cavity and comprises a quartz tube, a hollow metal capillary tube, a copper foil and a three-dimensional mobile platform, wherein the hollow metal capillary tube is interspersed into the quartz tube, and the outer wall of the hollow metal capillary tube is not in contact with the inner wall of the quartz tube; the copper foil is arranged in the bottom of the quartz tube for grounding; the three-dimensional mobile platform is arranged right below the quartz tube to regulate movement of a sample; one end of the bubbling bottle is connected to a first air cylinder while the other end is connected to the upper orifice of the hollow metal capillary tube; the second air cylinder is connected to the upper orifice of the hollow metalcapillary tube; and the power supply is connected to the hollow metal capillary tube.

A double-air-gap ozone generating device comprises a barrel-shaped outer electrode, an inner electrode which is arranged inside the outer electrode, a left pattern plate, a right pattern plate, a medium pipe which is arranged between the outer electrode and the inner electrode, a left end cover, a right end cover and an electrode which penetrates through the left end cover and is connected with the inner electrode, wherein the left pattern plate and the right pattern plate are used for supporting the outer electrode, the left end cover and the right end cover are used for fixing the inner electrode, the outer electrode and the medium pipe, the gap between the outer electrode and the medium pipe is an outer gap, the gap between the medium pipe and the inner electrode is an inner gap, three position limiting steps are arranged on one sides, oppositely arranged, of the left end cover and the right end cover, and axial grooves are formed in the left end cover and the right end cover along the axial line direction. The double air gap ozone generation device has the advantages that under the situation that the size of the volume of a discharging unit is unchanged, the size of discharging area is multiply increased, ozone concentration and ozone generating efficiency are improved, and the manufacture cost and the operation cost of the ozone generator are reduced.

A method and system for inductively coupling energy to a heating filament (7A′, 7B′, 7C′, 7A, 7B, 7C) in a thermal processing environment. By applying AC power to a coil antenna (11) and inductive coupling to a filament (e.g., a halogen lamp filament), a number of connections that are subject to fatigue is reduced, thereby increasing the reliability of the heater (2A, 2B). Such an environment can be used to process semiconductor wafers (3) and liquid crystal displays.

A plasma display panel (PDP) includes a front panel, a rear panel disposed parallel to the front panel, first barrier ribs formed of a dielectric substance and disposed between the front panel and the rear panel to define a plurality of discharge cells, front discharge electrodes disposed inside the first barrier ribs so as to surround the discharge cells and spaced from the side surfaces of the discharge cells toward interiors of the first barrier ribs by an electrode-burying depth, rear discharge electrodes disposed inside the first barrier ribs so as to surround the discharge cells and spaced from the side surfaces of the discharge cells toward the interiors of the first barrier ribs by an electrode-burying depth at the rear side of the first discharge electrodes, a plurality of phosphor layers disposed inside the discharge cells for receiving ultraviolet rays and emitting visible rays, the phosphor layers having different dielectric constants, and a discharge gas filling the discharge cells. The electrode-burying depth corresponding to discharge cells in which phosphor layers having the lowest dielectric constant are formed is smaller than the electrode-burying depth corresponding to discharge cells in which phosphor layers having a relatively high dielectric constant are formed.

The present invention provides a plasma display panel (PDP) with a structure that can reduce an outer reflection of an external light source and increase the reflection of visible rays emitted from the phosphor, remarkably increase the aperture ratio of the front panel, and remarkably reduce occurrence of a permanent residual image. The PDP includes: a transparent front panel; a rear panel disposed in parallel with the front panel; a plurality of opaque upper barrier ribs disposed between the front panel and the rear panel to define a plurality of discharge cells, and formed of a dielectric material; a lower discharge electrode and an upper discharge electrode disposed within the plurality of opaque upper barrier ribs so as to enclose the discharge cells; a plurality of lower barrier ribs disposed between the plurality of opaque upper barrier ribs and the rear panel; a phosphor layer disposed within a space defined by the plurality of lower barrier ribs; and a discharge gas disposed inside the discharge cells.

A plasma display panel. A first substrate is opposite a second substrate. A plurality of ribs are interposed between the first substrate and the second substrate, defining a plurality of discharge cells. A plurality of address electrodes are disposed on the second substrate, wherein each discharge cell is passed through a corresponding fence shaped address electrode. Each fence shaped address electrode comprises a plurality of main electrodes and at least one auxiliary electrode, and the auxiliary electrode connects two adjacent main electrodes in each cell.

The invention discloses a rice milling machine, and belongs to the field of grain processing. The rice milling machine comprises a case and a main shaft which is horizontally arranged along the case; a rice roller is connected to the outer side of the main shaft in a sleeving manner; the two ends of the rice roller are provided with a feed bearing seat and a discharge bearing seat respectively; a rice rolling chamber is arranged between the rice roller and a sieve plate; the split type sieving plate is fixedly connected to upper and lower cross beams through a plurality of sieve brackets; an adjusting and locking device for adjusting the diameter of the sieve plate is arranged in at least one sieve bracket; the two ends of the sieve plate are clamped in grooves of the feed and discharge bearing seats. According to the rice rolling machine, the space between the rice roller and the sieve plate can be adjusted, so that the requirement that one set of rice rolling machine can be used for rolling various types of rice is met.

A plasma display panel includes a back substrate having back barrier ribs partitioning a plurality of discharge cells; a front substrate arranged to be opposite to the back substrate and having front barrier ribs partitioning the discharge cells in cooperation with the back barrier ribs; back discharge electrodes arranged within the back barrier ribs to enclose the discharge cells; front discharge electrodes arranged within the front barrier ribs to enclose the discharge cells; phosphor layers arranged within the discharge cells; and discharge gas arranged within the discharge cells.

A movable deposition box (02) for silicon-based thin film solar cell comprises an electrode array composed of at least a group of cathode plates (203) and a piece of anode plate (208) which are set in movable chamber, wherein a feeding socket (203-1) is positioned on a circular or semicircular concave surface in the center area on the backside of the cathode plates (203), a circular or semicircular end face (201-1) of a feeding component (201) which has a flat middle part contacts the signal feeding socket (203-1) and feeds in RF / VHF power signal, the anode plate (208) is grounded, and a shield cover (204) of the cathode plate has through-hole (204-1) and is insulated from the cathode plate (203).

An organic light-emitting display device includes a first pixel electrode, a second pixel electrode, a pixel-defining layer disposed on the first pixel electrode and the second pixel electrode and exposing at least portions of the first pixel electrode and the second pixel electrode, a first stack disposed on the exposed portion of the first pixel electrode, a first protective layer, a second stack disposed on the exposed portion of the second pixel electrode, and a first inorganic conductive layer. The first stack includes a first intermediate layer including an emission layer and a first opposite electrode on the first intermediate layer. The first protective layer is disposed on the first stack. The second stack includes a second intermediate layer including an emission layer and a second opposite electrode on the second intermediate layer. The first inorganic conductive layer is disposed between the second pixel electrode and the second stack.

A light-emitting device obtained by a method comprising the steps of disposing a transparent electrode, one or more organic layers and a back side electrode on a substrate to provide a light-emitting structure, and disposing sealing parts on the light-emitting structure to isolate the one or more organic layers from external air, wherein the one or more organic layers comprises a light-emitting layer containing a phosphorescent compound, and the light-emitting layer, the back side electrode and the sealing parts are disposed in an atmosphere where both of a moisture concentration and an oxygen concentration are 100 ppm or less.