45results about How to "Avoid misregistration" patented technology

In a micro-lens array substrate (12) that includes first and second micro-lens arrays (6, 7) respectively having a plurality of lenses, the first micro-lens array (6) is sandwiched between two inorganic dielectric substrates (21, 24), and the second micro-lens array (7) is formed on one of the two inorganic dielectric substrates (21, 24).

The invention relates to the technical field of image processing, in particular to a remote sensing image registration algorithm. The registration algorithm comprises the following steps of: (1) reading primary remote sensing image data from a storage medium; (2) pre-processing each primary image; (3) performing binarization processing to realize image segmentation; (4) corroding and expanding the binary image; (5) extracting a monotropic edge from the eroded and expanded binary image by the Roberts cross gradient operator; (6) calculating the matching degree of the edge image and finding the optimal matching point; (7) conversing images; and (8) outputting registration information and registration images. The remote sensing image registration algorithm can be applied to multispectral data fusion and remote sensing image mosaicking.

A method and an apparatus control a printing press having a plurality of printing units, a plurality of cylinders which are coupled mechanically to one another and a control computer for controlling at least one drive motor which drives the mechanically coupled cylinders. A torsion model is stored in the machine computer for describing the torsion state of the cylinders in the printing press which are rotatably coupled mechanically to one another, as a function of at least one measurable operating parameter or at least one variable of the printing press which is known to the machine computer. A control of the printing press is performed by the control computer on the basis of the values which are calculated by the torsion model.

To restrain misregistration of tips due to change in temperature, an electrical connecting apparatus is used for connection of a tester, and electrical connection terminals of a device under test to undergo electrical test by the tester. The electrical connecting apparatus comprises a probe board having a plurality of probe lands on its underside; and a plurality of contacts having tip portions to be brought into contact with a base end portion fixed at the respective probe lands and the connection terminals of the device under test. The measure from the tip of each contact and the probe land ranges from 1.1 to 1.3 mm, and the coefficient of thermal expansion of the probe board is greater than the coefficient of thermal expansion of the device under test within the range from 1 to 2 ppm/° C.

An image forming apparatus equipped with an image forming unit capable of image formation using color toner and transparent toner includes, a determining unit adapted to determine whether each pixel of image data belongs to an image region or a text region; a control unit adapted to control the image forming unit by switching between transfer of a toner image to the image region and transfer of a toner image to the text region; a fixing unit adapted to fix the toner image formed on recording material; and a transport unit adapted to discharge the recording material on which the toner image is fixed or re-feed the recording material to the image forming unit.

A pyrometer holder is mounted to an outer wall of a chamber while holding a lower radiation thermometer. The front end of the lower radiation thermometer is brought into abutment with a mounting portion of the pyrometer holder, and a bottom plate is brought into abutment with the rear end of the lower radiation thermometer. A tension spring is tensioned between the bottom plate and the mounting portion to prevent the lower radiation thermometer from falling off or misregistration. An angle adjusting mechanism adjusts the angle of the radiation thermometer with respect to the outer wall of the chamber, with the front end of the radiation thermometer serving as a supporting point. Thus, the measurement position of the lower radiation thermometer is adjusted.

The invention discloses an automatic register method, system and equipment based on machine vision. The automatic register method based on machine vision includes the following steps: an industrial control computer transmits calculated center distance deviation ([delta]X and [delta]Y) of actual color codes and reference color codes of all groups of cameras and register error data to a control system, the control system calculates transverse and longitudinal register values according to the transmitted center distance deviation ([delta]X and [delta]Y) of the actual color codes and the referencecolor codes of all the groups of the cameras and the register error data, and the control system carries out automatic register according to the calculated transverse and longitudinal register values. Through the method, the recognition of color code images by shooting can be realized by using the machine vision, an actual position is calculated for the automatic register, the register is accurate, and the problem of inaccurate register caused by color code printing can be avoided.

A thermal transfer image receiving sheet is provided which, when used with various printers, can be carried with improved accuracy, can form an image without misregistration, can prevent a trace of a spike of a metallic roller in the printer from reaching the image receiving surface and hence can form an image having quality not significantly influenced by the trace of the spike.The thermal transfer image receiving sheet 1 comprises a substrate 3, a receptive layer 4 provided on at least one side of the substrate 3, and a grip layer 2 provided on the other side of the substrate 3. In this case, the grip layer 2 is constituted by an unstretched synthetic resin layer having a softening point of 110° C. or above. This constitution permits a spike of a metallic roller in a printer to satisfactorily bite the unstretched synthetic resin layer having a softening point of 110° C. or above as the grip layer 2. This prevents slippage between the metallic roller and the thermal transfer image receiving sheet 1 at the time of a reciprocation for image formation and hence can prevent misregistration. Therefore, the thermal transfer image receiving sheet can be carried with improved accuracy, and a thermally transferred image can be formed without misregistration.

An image forming apparatus including: a first and a second photoconductor groups constituted of one or more photoconductors respectively; a first and a second drive control sections for controlling the drive of the first and the second photoconductor groups respectively to rotate the photoconductors thereof, wherein the rotational phases of the first photoconductor group and the second photoconductor group are adjusted to be matched therebetween; and the first and the second drive control sections control so that predetermined profile of a target speed is applied to the first and second photoconductor groups wherein, in the target-speed profile, the first photoconductor group starts rotating after a elapse of a predetermined startup delay time from the second photoconductor group starts rotating, and both groups end at a same final speed predetermined for full-color image formation, wherein the startup delay time is predetermined based on measurements of times needed for each of the first and the second photoconductor groups to reach a predetermined speed from starting the rotation with the target-speed profile being applied thereto.

A typical clinical MR protocol is composed of several sets of scans to acquired images with different contrast, such as T1, T2 and DWI. Currently, the acquisition and reconstruction of these images are processed individually. The proposed method treats the optimization of all acquisitions and reconstructions as one single procedure for faster and more robust MRI. The theory behind this concept is that the information such as B0, B1- field, optimized acquisition trajectory, reconstruction parameters, etc., can be shared among all scans for different contrasts since the same subject is scanned in the same system using the same RF coil.; A method of magnetic resonance imaging includes performing a first magnetic 10 resonance scan sequence which saves a data store, and performing a second magnetic resonance scan sequence which uses a data store from the first magnetic resonance scan sequence. A magnet (10) generates a B0 field in an examination region (12), a gradient coil system (14, 22) creates magnetic gradients in the examination region, and an RF system (16, 18, 20) induces resonance in and receives resonance signals from a subject in the 1 examination region. One or more processors (30) are programmed to perform a magnetic resonance pre-scan sequence to generate pre-scan information, perform a first sequence to generate first sequence data, refine the pre-scan information with the first sequence data, perform a second imaging sequence to generate second sequence data.; Further, the second sequence data is either reconstructed using the refined pre-scan information or performed using the refined pre-scan sequence information.

The invention discloses a DMOS device and a manufacturing method of the DMOS device. The DMOS device and the manufacturing method of the DMOS device are used for increasing the density of cells of the DMOS device. The method comprises the first step of forming grooves corresponding to the cells in a body area located on a silicon substrate and a semiconductor epitaxial layer, the second step of conducting doping on set areas of the body area exposed out of the grooves to form source areas located in the body area, the third step of growing a gate oxidation layer in the grooves, and the fourth step of forming a polycrystalline silicon layer in the grooves where the gate oxidation layer is formed.

A point-of-sale (POS) terminal includes a commodity information input part for inputting commodity information on commodities; a quantity input part for inputting a quantity for the commodities; and a storage part for storing the quantity and the commodity information, as item information. The POS terminal further includes a calculation part for calculating an amount of money involved in the transaction in dependence on the item information stored in the storage part; a quantity correction indication part for indicating correction of the quantity; and a quantity correction part for correcting the quantity. When the correction is indicated, the quantity correction part corrects the quantity by replacing the quantity in the item information last stored in the storage part with another quantity newly input by the quantity input part. The calculation part recalculates the amount of money based on the new quantity.

The invention discloses a satellite-type flexographic printing machine. The printing machine comprises an unrolling unit, an unrolling correcting unit, a traction unit, a printing station, a baking oven, a rolling correcting unit and a rolling unit and also comprises an overturning correcting frame; a printing material enters the overturning correcting frame after being subjected to front printing and drying and enters the printing station again so as to be subjected to back printing after being overturned by the overturning correcting frame. By using the satellite-type flexographic printing machine, automatic double-side printing on one satellite-type flexographic printing machine is realized, the problem that halt and secondary starting are required during original double-side printing on one equipment is solved, therefore, the problems of register difference and printing tailings caused in the speed increasing and reducing processes for halt and secondary starting are also avoided, and the production efficiency and product qualification ratio are greatly increased; and meanwhile, compared with printing by using two equipment, the satellite-type flexographic printing machine has the advantages that the amount of the required operating personnel is smaller, and therefore, the labor cost can be reduced while the equipment purchasing cost is reduced.

The invention discloses a manufacturing method for a groove grid super junction MOSFET. The manufacturing method comprises the steps of forming a hard mask layer; photoetching the hard mask layer to open a groove forming area; etching for the first time to form a top groove; removing a protection layer at the bottom of the top groove, and reserving the protection layer on the side surface of the top groove; etching for the second time to form a bottom groove; filling the bottom groove with a P-type epitaxial layer to form a bottom epitaxial filled layer; filling the top of the bottom epitaxial filled layer with a P-type epitaxial layer to form a top epitaxial filled layer; removing the hard mask layer and the protection layer and thus forming a grid groove at the periphery of the top of a P-shaped column; and forming a grid dielectric layer in the grid groove and filling a grid conductive material in the grid groove. According to the manufacturing method, the registration deviation between the groove grid and the P-type column can be avoided, the technological stability can be improved and thereby the threshold voltage and breakover voltage drop of the device are more uniform, the size of the super junction unit can be smaller, and the capability of resisting unclamped inductive switching impact can be greatly enhanced.

There is provided an optical connector module of which an optical transmission/reception wafer and an optical waveguide wafer can be registered with each other easily and accurately without misregistration. An optical transmission/reception wafer has guide pin-receiving V-grooves with a V-shaped cross-section, formed at locations preset in association with an optical transmission/reception end of an optical transmission/reception section. An optical waveguide-side connector has an optical waveguide wafer formed with guide pin-receiving V-grooves in association with the guide pin-receiving V-grooves of the optical transmission/reception wafer. Wafer registration guide pins are inserted in these guide pin-receiving V-grooves, and the optical transmission/reception wafer and the optical waveguide wafer are brought close for interconnection such that these guide pins are tightly sandwiched by the guide pin-receiving grooves.