151results about How to "Reduce positional offset" patented technology

The charging pad 10 is provided with a position detection controller 14 that supplies position detection signals to position detection coils 30, and detects induction coil 51 position from echo signals output from the induction coil 51. The device housing a battery 50 is provided with a series capacitor 55 connected in series with the induction coil 51, a parallel capacitor 56 connected in parallel with the induction coil 51, and a switching circuit 57. When the position detection controller 14 is issuing position detection signals, the parallel capacitor 56 is connected to the induction coil 51. When power is transmitted from the power supply coil 11 to the induction coil 51, the parallel capacitor 56 is not connected to the induction coil 51 and induction coil 51 AC is output to a rectifying circuit 53 through the series capacitor 55.

An ink jet printer has a line head having heating elements (121d) for ejecting ink droplets from nozzles, in which the plurality of heating elements (121d) are arrayed in a direction substantially perpendicular to the paper feed direction. In the line head, the plurality of heating elements (121d) are divided into a plurality of blocks, with each block consisting of a predetermined number of spatially arrayed heating elements of the plurality of heating elements (121d) corresponding to the plurality of nozzles, and a phase signal PH is sequentially supplied to a set of heating elements (121d) simultaneously driven over the respective blocks, thus sequentially driving the respective heating elements (121d) by each set as a unit in a time-divisional manner. Thus, the ink jet printer can reduce the positional shift of dots on the paper and can reduce the instantaneous maximum dissipation power in time-division drive.

In X-ray CT imaging for scanning a subject in the same anatomical region with two kinds of X-rays having different energy distributions, for the purpose of reducing a subject's positional offset between two kinds of tomographic images representing the same slice by a simple control scheme while reducing stress on the subject, a cardiac cycle identifying section 30b identifies a cardiac cycle of a subject 6 by an electrocardiograph 5 or the like, and a scan start time interval setting section 30c sets a time interval from the start of a first scan with first X-rays to the start of a second scan with second X-rays to a time approximately the same as the aforementioned cardiac cycle. A scan control section 30a controls several sections to keep a constant rotation speed of a rotating section 27 and start the scans at the aforementioned time interval. In each scan, projection data over a given view angle sufficient for reconstruction processing for a tomographic image are collected at once.

The present invention provides a liquid crystal device manufacturing method for reducing the position deviation of an optical shaft of a liquid crystal unit and an optical shaft of a polarization optical plate and a liquid crystal device. The liquid crystal device manufacturing method includes: a working procedure for preparing the liquid crystal unit having a liquid crystal layer clamped between an element substrate and a contraposition substrate which are opposite to each other, at least one position arranged at the element substrate, and a wire grating polariscope with polarized light separating function; a first working procedure, under the state of contraposition of a polarized light plate with the outer side of the element substrate of the liquid crystal unit, at least one of the liquid crystal unit and the polarized light plate rotates in the contraposition surface, for detecting the intensity of light which passes through a region arranged with wire grating polariscope of the liquid crystal unit and the polarized light plate; and a second working procedure, according to the detection result of the intensity of the light, for determining the position relationship of the polarized light plate relative to the wire grating polariscope in the opposite surfaces, and adhering the polarized light plate on the element substrate of the liquid crystal unit.

A multiphase superconducting cable connection structure includes a connection box accommodating three conductor connects connecting a superconductor of a cable core of each phase extracted from a pair of 3-phase superconducting cables, a solid insulation member fixed to an outer circumference of each conductor connect, and a metal flange fixing the solid insulation member to the connection box. By fixing the metal flange to the connection box (a refrigerant vessel), the conductor connect can be positioned and the conductor connector's movement caused as the cable core thermally contracts can be reduced. The structure can help to position the conductor connect in the connection box and reliably hold it at a prescribed position.

The camera module (1) of the present invention is provided with a tubular cover (19) and a lens holder (17). The cover (19) is fixed (bonded) to the substrate (11) with its legs (19a) in contact with the surface of the substrate (11). Moreover, the lens holder (17) is inserted into the inner surface (19b) of the cover (19), the lens holder (17) is in contact with the transparent plate (14) at its foot (17a) and its outer surface (17b) is in contact with the inner surface of the cover In the state, the outer surface (17b) of the lens holder (17) is fixed (bonded) on the inner surface (19b) of the cover (19). A lens (18) guiding the path of incident light to the light receiving portion (12a) of the imaging element (12) is fixed at a predetermined position on the lens holder (17).

An LED print head comprising a base body (1) consisting of a large-capacity base unit (11) disposed to extend in parallel to the axis direction of a photosensitive element (K) and formed with a facing upper surface (111) facing the photosensitive element, and a small-capacity projection (12) projecting from a part of the facing upper surface of the base unit to extend and be formed integrally therewith and having a small width in the moving direction of the photosensitive element, an LED substrate (2) disposed on the facing upper surface of the base unit, and lens array (3) disposed at a portion between the facing surface (111) of the element (K) and the upper surface of the LED substrate (2) at one end of the projection (12); and a production method of the LED print head; and a method of producing an LED substrate and a method of pasting an LED substrate.

An image forming apparatus in which the intensity of a light beam used to form a latent image is switched in response to a change in resolution. A laser emits a light beam for forming a latent image on a photosensitive drum. A polygon mirror scans the emitted light beam. BD sensors detect the scanned beam. A timing controller selects the preferable timing from a storage device table according to the intensity of the light beam or the resolution when controlling the light emission timing of the lasers in response to a detection of timing of the detected light beam.

The invention relates to a pattern forming apparatus and a pattern forming method. The pattern forming apparatus comprises: a first holder unit (61) which holds a rubber blanket (BL) carrying a pattern forming material (PT) on one surface in a horizontal posture with a carrying surface for the pattern forming material faced up; a second holder unit (41) which holds a plate (PP) for patterning the pattern forming material or a substrate (SB), to which a pattern is transferred, as a processing object such that the processing object is proximate to and facing the carrying surface of the rubber blanket (BL) held on the first holder unit (61); and a push-up unit (641) which partially pushes up an effective area in a central part of the rubber blanket (BL) from a lower surface side of the rubber blanket (BL) to bring the effective area into contact with the processing object held on the second holder unit (41) and moves along the lower surface of the rubber blanket (BL) to change a push-up position of the rubber blanket (BL).