227results about How to "Eliminate misalignment" patented technology

A curved backlight assembly includes a curved light guide plate (“LGP”), at least one light-emitting diode (“LED”), a printed circuit board (“PCB”) and a curved LED cover. The LGP includes a first side and a second side. The LED generates lights. The PCB has the LED mounted thereon to be disposed adjacent to the first side of the curved LGP. The curved LED cover receives the PCB to be bent along the first side of the curved LGP. Therefore, a generation of a hot-spot phenomenon may be prevented, so that it may emit uniform lights.

A closed face motorcycle helmet includes a shell with an eyeport and a shield attached for hinged motion between a closed position covering and sealing the eyeport and an open position displaced above the eyeport. A hinge plate is attached to the shell on each side and includes a socket into which a hub of the shield is rotatably disposed for hinged movement of the shield. A lever assembly having a downwardly extending lever and a hub with two dowels is attached to the bottom of the hinge plate. The lever assembly is manually movable between a central home position, a forwardly rotated shield cracking position, and a rearwardly rotated shield restraining position. A motion plate is attached to a lower edge of the shield and covers the hub and dowels of the lever assembly when the shield is closed. Surfaces on the inside of the motion plate interact with the dowels of the lever assembly to provide multiple precision shield control functions. Specifically, flipping the lever forward cracks the shield slightly open to eliminate fog and flipping it rearwardly applies an additional restraining force to the shield preventing it from being blown open by aerodynamic forces, especially at high speeds. A live beam mechanism with micro detents interacts with a projection on the shield to provide fluid-like operation of the shield and the ability to position the shield at virtually any location between fully closed and fully opened.

The invention discloses a clamp structure for clamping and autocompensation; a clamping block (3) is arranged on a clamp; the surface of the clamping block (3) for clamping a workpiece is a clamping surface (4); and the clamping block (3) is made of an elastic material. With the technical proposal adopted, abrasion occurring in a clamping part and the change of the surface of the clamped workpiece are subjected to compensation by a simple elastic structure so as to ensure that a gripping jaw has enough clamping force in clamping and to guarantee the dimension of the workpiece after various machining processes (such as welding).

The invention relates to a method for correcting misplaced partial image splicing. The method comprises the following steps: in step 1, a misplaced spliced area in a panoramic spliced image with misplacement is determined, two spliced sub-images for splicing the area are determined, and the misplaced spliced area is taken as an area to be corrected; in step 2: exact matching is performed on the two spliced sub-images in the area to be corrected, a transformation matrix for exactly matching the two spliced sub-images in the area to be corrected, and initial coordinate offset used to correct themisplacement can be calculated accordingly; in step 3, weighted correction is performed, correction transformation is performed via weighted corrected coordinate offset, an offset weight coefficientis 1 in a central area of the area to be corrected and is 0 in an edge region of the area to be corrected, and the offset weight coefficient gradually transits between the area with the offset weightcoefficient being 1 and the area with the offset weight coefficient being 0. The method disclosed in the invention helps ensure that the correction transformation of a specified area is completed while that images in the area to be corrected and images beyond the area to be corrected are spliced is ensured, and a panoramic spliced image with eliminated misplacement is obtained.

The invention discloses a fixed wing unmanned aerial vehicle touring image accurately-splicing method for a power transmission line. The accurately-splicing method includes the following steps: (1) conducting data preparation and sample training; (2) conducting feature extraction on the power transmission line based on textural features and straight line features to obtain a power transmission line distributing area and power transmission line extraction data, screening the power transmission line extraction data through the power transmission line distributing area, and obtaining power transmission line extracting results through power transmission line double-edge features; (3) conducting SIFT image registration and fusing based on power transmission line customization on the power transmission line extracting results. According to the fixed wing unmanned aerial vehicle touring image accurately-splicing method, curvelet transformation is adopted for achieving extraction on power transmission line texture information and detection on power transmission line distribution, and the power transmission line double-edge features in high-resolution unmanned aerial vehicle images are further adopted for obtaining the reliable and accurate power transmission line extracting results.

The invention discloses a flexible printed circuit board steel disc reinforcing hot-pressing making process, including that pure glue is firstly adhered on the steel disc reinforcing position of the flexible printed circuit board and then steel disc is adhered, lamination curing is carried out to complete steel disc reinforcing, and the steel disc is fixed by steel disc adhesion jig. The invention adopts electric iron to preheat the steel disc firstly, so that certain stickiness is kept between the steel disc and the flexible printed circuit board and the steel disc can not drop in the process that the flexible printed circuit board is taken out and transferred; and the pure glue used for adhering the flexible printed circuit board and reinforcing the steel disc in steel disc hot-pressing process is thermosetting glue, namely glue system capable of being molten and cohered under heating condition and can be cured after curing at certain temperature for a while, so that the steel disc is firmly adhered on the flexible printed circuit board and can not drop in post making processes. The invention has simple making process and strong feasibility, can thoroughly avoid steel disc dropping and deviation problems and has wide applicability and higher production efficiency.

A micro-transformer manufacturing method is provided, which can improve throughput, prevent a crack from entering an insulating film between coils, and manufacture the micro-transformer without using a mask material having a high selection ratio. An insulating film is deposited on the whole face of a semiconductor substrate having an impurity-diffused region. This insulating film is partially removed to form a first opening and a second opening. A primary coil is formed such that a center pad contacts the impurity-diffused region through the first opening. A thin insulating film is deposited on the primary coil. An insulator material having a secondary coil formed thereon is adhered onto the insulating film on the primary coil by adhesive tape. The insulator material is sized to not cover both a pad, connected with the center pad of the primary coil through the impurity-diffused region, and an outer-end pad of the primary coil.

When annealing of a semiconductor film is conducted using a plurality of lasers, each of the distances between laser irradiation regions is different. When a lithography step is conducted in accordance with a marker which is formed over a substrate in advance after the step, light-exposure is not correctly conducted to a portion crystallized by laser. By using a laser irradiation region obtained on a laser irradiation step as a marker, light-exposure is conducted by making a light-exposure position of a stepper coincide with a large grain size region in the laser irradiation region. A large grain size region and a poorly crystalline region are detected by utilizing a thing that scattering intensity of light is different between the large grain size region and the poorly crystalline region, thereby determining a light-exposure position.

The present invention relates to a lateral PNP transistor and the method of manufacturing the same. The medium doping N-type base area and the light doping P⁻ collector area were first introduced in the structure before the formation of P⁺ doping emitter area and the collector area. The emitter-base-collector doping profile in the lateral and the base width of LPNP were similar to NPN. The designer can optimize the doping profile and area size of each area according to the request of the current gain (Hfe), collector-base breakdown voltage (BVceo), and Early voltage (VA) of LPNP transistor. These advantages may cause to reduce the area and enhance performance of the LPNP transistor.

The invention discloses a gap removing device for assembling workpieces by inserting. The device comprises a first vibrating discharging mechanism, a second vibrating discharging mechanism, a first workpiece staggering mechanism, a second workpiece staggering mechanism and an assembling carrying detecting mechanism, wherein the first vibrating discharging mechanism is connected with the first workpiece staggering mechanism; the second vibrating discharging mechanism is connected with the second workpiece staggering mechanism; a first workpiece sequentially runs through the first vibrating discharging mechanism and the first workpiece staggering mechanism and then is conveyed to the assembling carrying detecting mechanism; a second workpiece sequentially runs through the second vibrating discharging mechanism and the second workpiece staggering mechanism and then is conveyed to the assembling carrying detecting mechanism; the first workpiece and the second workpiece are assembled and detected through the assembling carrying detecting mechanism. According to the gap removing device, an adjustable floating gripping device is utilized to remove the factors such as inaccurate centering, poor assembling and wear damage on the workpieces in assembling, and the processed workpieces are free of the requirements on high processing precision and matching precision.

The invention relates to a position correction method, a scanning control method, a medium and equipment for selective laser melting. The position correction method comprises the following steps of: acquiring a pre-machining section of a part model of a part to be machined at a current position in slicing software; controlling a scanner to scan a contour line containing at least two characteristicpoints according to the pre-machining section so as to obtain a printed contour line on a covering plate covering corresponding points of corresponding characteristic points on the part to be machined; obtaining a position deviation value between position points of the corresponding characteristic points on the printed contour line and corresponding points of the corresponding characteristic points on the actual contour line of the part to be machined; and correcting the current position of the part model based on the position deviation value. Therefore, the position deviation value can accurately reflect the deviation between the position of the part model and the actual position of the part to be machined in the slicing software, thereby correcting the position of the part model in theslicing software according to the position deviation value, effectively eliminating dislocation, improving the scanning dimension precision and improving the forming precision of printing manufacturing.

The invention relates to the machining technology for a steering gear, in particular to the machining technology for a rotary blade type hydraulic steering gear, comprising a machining procedure for an inside hole of a cylinder body and a sealing surface at the lower end of the cylinder body, a machining procedure for a sealing groove on the sealing surface at the lower end of the cylinder body, a machining procedure for appearance of a stationary blade and a machining procedure for the stationary blade and a connecting hole of the cylinder body, a combination machining procedure for the cylinder body, the stationary blade and a copper sleeve, a machining procedure for an inside conical hole of a rotor and a machining procedure for an incomplete arc surface of the rotor. The machining procedures of the invention can greatly improve the machining accuracy and efficiency of each main part of the rotary blade type hydraulic steering gear, lower the production cost, as well as improve the working efficiency and the product quality.

The invention discloses a rope traction monorail crane system braking vehicle, and the rope traction monorail crane system braking vehicle comprises a frame, two pairs of walking wheels and two pairs of brake shoes are arranged between two sidewalls of the frame, two pairs of brake shoes are driven by a pair of brake arms, two pairs of brake arms are driven by brake oil cylinder, the frame is provided with a speed selecting and increasing device, the speed selecting and increasing device comprises a first speed selecting wheel, a second speed selecting wheel, a clamping oil cylinder, a dual-direction hydraulic motor and a gearbox, the first speed selecting wheel shaft and the second speed selecting wheel shaft are supported by the first wheel shelf and the second wheel shelf, the shaft of the second speed selecting wheel is connected to the low speed shaft of the gearbox through cross-shaped universal coupler, the high speed shaft of the gearbox is connected to the drive shaft of the dual-direction hydraulic motor through elastic coupler. The speed selecting and increasing device controls two pairs of brake shoes of the braking vehicle by selecting speed judgment, the brake shoes on the other vehicles can also be controlled for guaranteeing the safe drive for the rope traction monorail crane system.

The invention discloses a full-automatic assembly line for a rotating disc type button switch conductive system. The full-automatic assembly line for the rotating disc type button switch conductive system is characterized in that a rotating disc is arranged on a table board I; eight stations are uniformly arranged on the upper surface of the rotating disc along the circumference; a group of locking fixtures is arranged at each station; various execution mechanisms are arranged on the table board I around the rotating disc and comprise a housing feeding mechanism, a pair of recognition sensors,a lower contact piece distributing, feeding and screwing mechanism, a lower contact piece bending assembly, an upper contact piece distributing, feeding and screwing mechanism, an upper contact piecebending assembly, a pair of position sensors and a discharging assembly. The full-automatic assembly line for the rotating disc type button switch conductive system provided by the invention is compact in structure, high in automation degree, and high in assembling quality.

A center measurement and adjustment method for a steel pipe heat extruder includes the following steps that firstly, a mandrel and a connection rod on a mandrel beam are detached, and a connection thread at the bottom of the mandrel beam is exposed; secondly, a reference steel wire is pulled with the two points of the center of the connection thread at the bottom of the mandrel beam and the center of a front beam as references; thirdly, concentricity deviation data of an extrusion die, an extrusion cylinder and an extrusion beam are measured respectively with the reference steel wire as the reference; and fourthly, the concentricity deviation is regulated by adjusting the installation positions of the extrusion die, the extrusion cylinder and the extrusion beam so that the technical requirements can be met. The method solves the problem that different concentricity degrees are generated due to movement abrasion between the extrusion die, the extrusion cylinder, the extrusion beam, the mandrel beam and other parts of the steel pipe heat extruder, and the device accuracy is restored.