Abstract: Disclosed is a relative angle detection device for detecting a relative angle between a first rotary shaft and a second rotary shaft, the relative angle detection device being provided with a first magnetic field sensing unit which outputs a value according to a magnetic field of a magnet, a second magnetic field sensing unit which outputs a value according to the magnetic field of the magnet and outputs a value different from the output value of the first magnetic field sensing unit even if being placed in the same magnetic field as that of the first magnetic field sensing unit, a correction unit which corrects one output value out of the output value of the first magnetic field sensing unit and the output value of the second magnetic field sensing unit in accordance with an amplitude ratio between magnetic field components orthogonal to each other in the magnetic field of the magnet, and a computing unit which computes the relative angle between the first rotary shaft and the second rotary shaft on the basi

Abstract: To avoid a glow discharge during the use of a conventional gas ionization chamber, there is no alternative but to increase a gas pressure. Therefore, while a conventional gas ionization chamber is used, an ion current cannot be increased by raising a gas introduction pressure. An object of the present invention is to increase the ion current by raising the gas pressure and prevent an ion beam from being scattered by an ionization gas. The gas is supplied from a structure maintained at a ground potential to prevent the application of a high voltage to the vicinity of an ionization gas introduction port at which the gas pressure is relatively high. Further, the ionization gas existing in a region through which the ion beam passes is preferentially reduced by performing differential evacuation from a lens opening in a lens electrode that forms an acceleration/focusing lens.

Abstract: Provided is an ion source emitter that does not cause significant extraction voltage changes even when an apex portion of the emitter is repeatedly regenerated. The emitter has a shape of a triangular pyramid with the single atom at the apex. An apex portion of the emitter is substantially shaped like a hexagon when viewed from the apex side.

Abstract: It is difficult to appropriately estimate the colorimetric values of an arbitrary patch at a desired temperature with respect to a medium containing a fluorescent whitening agent in consideration of the influence of the fluorescent whitening agent. A target temperature and media type are designated (S601, S602), patches of a plurality of colors are formed on a set medium, and a temperature immediately after fixing (second temperature), patch colorimetric values, and medium white colorimetric values are acquired (S606, S607). Medium white calorimetric values at the target temperature are generated based on the acquired medium white calorimetric values and medium white colorimetric values at a first temperature, which are acquired in advance (S608). Patch calorimetric values at the target temperature are estimated based on the generated medium white colorimetric values and patch colorimetric values.

Abstract: It is difficult to appropriate estimate the colorimetric values of an arbitrary patch at a desired temperature with respect to an arbitrary medium in consideration of the influence of a fluorescent whitening agent contained in the medium. Target patch colorimetric values obtained when patches of a plurality of colors formed on a medium using color samples are measured at a target temperature designated in step S101. This estimation is implemented when both media-dependent variation correction processing (S102) that estimates patch colorimetric values based on the temperature characteristics of the medium, and toner-dependent variation correction processing (S103) that estimates patch colorimetric values based on the temperature characteristics of the color samples are executed. By correcting image data whose image is to be formed based on the target patch colorimetric values (S104), an arbitrary color patch on an arbitrary medium can be coped with.

Abstract: The colorimetric values of a plurality of reference color patches formed on a specific medium are measured at a plurality of temperatures, and a temperature characteristic LUT in a colorimetric value temperature correction unit is created based on the colorimetric values. Upon creating a calibration LUT, a patch based on arbitrary device values is formed on the medium, and a patch temperature and colorimetric values are acquired immediately after fixing of that patch. A correction target temperature as a temperature upon observation of the medium is, for example, fixed, the colorimetric values are corrected by interpolation processing based on the temperature characteristic LUT to obtain colorimetric values, and a calibration LUT is created based on the colorimetric values.

Abstract: By using a composite material that is produced from an acid salt of an oxo acid compound and an azole compound, a proton conductor with good proton conductivity properties under medium temperature, non-humidified conditions may be achieved. The composite material may be produced by mechanical milling of the acid salt of the oxo acid compound and the azole compound using a planetary ball mill The structure of the composite material obtained by the mixing processing may be different from that of a mixture of the acid salt of the oxo acid compound and the azole compound. Therefore, it may be possible to produce the proton conductor that has good proton conductivity properties under medium temperature, non-humidified conditions with a simple method of mechanical mixing.

Abstract: In order to fix an optical fiber to a desired position in a holding member easily and tightly, provided is an optical collimator (10) having a plastic optical fiber (13) and a cylindrical holder (11). The holder (11) is configured to hold a collimator lens (12) at an end and has an insertion hole (11a) at an opposite end for inserting the plastic optical fiber (13). The plastic optical fiber (13) is sandwiched by an inner surface of a recess (11e) which is formed at a part of the holder (11) in proper alignment with the collimator lens (12).

Abstract: An object of the present invention relates to realizing the processing of a sample by charged particle beams and the monitoring of the processed cross-section with a high throughput. It is possible to process an accurate sample without an intended region lost even when the location and the size of the intended region are unknown by: observing a cross-sectional structure being processed by FIBs by using a secondary particle image generated from a sample by the ion beams shaving a cross section; forming at least two cross sections; and processing the sample while the processing and the monitoring of a processed cross section are carried out.

Abstract: To provide a gas field ion source having a high angular current density, the gas field ion source is configured such that at least a base body of an emitter tip configuring the gas field ion source is a single crystal metal, such that the apex of the emitter tip is formed into a pyramid shape or a cone shape having a single atom at the top, and such that the extraction voltage in the case of ionizing helium gas by the single atom is set to 10 kV or more.

Abstract: A relative angle sensing device that senses a relative angle between two rotary shafts is provided with: a hard magnetic body that is provided to one rotary shaft out of the two rotary shafts; a soft magnetic body that is provided to the other rotary shaft out of the two rotary shafts to be arranged in a magnetic field formed by the hard magnetic body, and forms a magnetic circuit together with the hard magnetic body; and a sensing unit that senses a magnetic flux density of the magnetic circuit. The soft magnetic body is formed by injection molding by using a material obtained by mixing a magnetic powder and a synthetic resin.

Abstract: A covering member appropriately covers an opening hole in a accommodating body. In a vehicle door minor device, look of a visor body at the outer periphery of a mirror is enhanced by an upper covering plate and a lower covering plate of an inner cover covering an upper recess portion and a lower recess portion, respectively, in a peripheral wall of the visor body. The upper covering plate and the lower covering plate abut the upper recess portion and the lower recess portion, respectively. The upper covering plate and the lower covering plate can accordingly be positioned in the upper recess portion and the lower recess portion, respectively. The upper covering plate and the lower covering plate can accordingly appropriately cover the upper recess portion and the lower recess portion, respectively.

Abstract: An information acquiring device has a light source which emits light of a predetermined wavelength band; a light receiving element which receives reflected light reflected on the target area for outputting a signal; an information acquiring section which searches a corresponding area corresponding to the segment area from an actual measurement pattern of the light received by the light receiving element; and a spreading detecting section which detects a change in a degree of spreading of a light receiving area of the actual measurement pattern. The information acquiring section performs a searching operation of the corresponding area along a searching line in parallel to an alignment direction in which the light source and the light receiving element are aligned, and displaces the searching line with respect to each segment area in a direction perpendicular to the alignment direction in accordance with the change in the degree of spreading.

Abstract: An object of the present invention relates to realizing the processing of a sample by charged particle beams and the monitoring of the processed cross section with a high throughput. It is possible to process an accurate sample without an intended region lost even when the location and the size of the intended region are unknown by: observing a cross-sectional structure being processed by FIBs by using a secondary particle image generated from a sample by the ion beams shaving a cross section; forming at least two cross sections; and processing the sample while the processing and the monitoring of a processed cross section are carried out.

Abstract: An image processing apparatus is provided in which the accuracy of measurement of an amount of toner adhesion is improved by forming a toner image pattern according to a detection scheme for the amount of toner adhesion. In the image processing apparatus, a toner image pattern control unit 215 determines a detection scheme for the amount of toner adhesion of a toner image based on attribute information of the toner image, decides a toner image pattern according to the results of that determination, and forms that decided toner image pattern. A toner adhesion amount calculation unit 605 measures the amount of toner adhesion for the toner image pattern formed by the toner image pattern control unit 215.

Abstract: Disclosed is a relative angle detection device for detecting a relative angle between a first rotary shaft and a second rotary shaft, the relative angle detection device being provided with a first magnetic field sensing unit which outputs a value according to a magnetic field of a magnet, a second magnetic field sensing unit which outputs a value according to the magnetic field of the magnet and outputs a value different from the output value of the first magnetic field sensing unit even if being placed in the same magnetic field as that of the first magnetic field sensing unit, a correction unit which corrects one output value out of the output value of the first magnetic field sensing unit and the output value of the second magnetic field sensing unit in accordance with an amplitude ratio between magnetic field components orthogonal to each other in the magnetic field of the magnet, and a computing unit which computes the relative angle between the first rotary shaft and the second rotary shaft on the basi

Abstract: There is provided a color processing apparatus comprising: a first input unit configured to input a reference spectral reflectance obtained by measuring a patch image with a spectrophotometer serving as a reference unit; a second input unit configured to input a correction target spectral reflectance obtained by measuring the patch image with a spectrophotometer serving as a correction target unit; a correction coefficient generation unit configured to generate a correction coefficient between the correction target spectral reflectance and the reference spectral reflectance, for each wavelength; and a correction unit configured to correct, for each wavelength, the spectral reflectance measured by the correction target unit, using the correction coefficient.

Abstract: A plurality of positions of a toner image formed on the image carrier of an image forming apparatus are irradiated with light. A plurality of light-receiving elements of a light-receiving unit receive a plurality of reflected lights reflected at the plurality of positions of the toner image. The light-receiving position of the light-receiving unit corresponding to each of the plurality of received reflected lights is detected. The toner height at each of the plurality of positions of the toner image is determined based on the detected light-receiving position.

Abstract: A calorific value calculation formula generating system is equipped with a measuring mechanism for measuring heat dissipation constant values or thermal conductivity values of each of plural mixed gases each containing plural kinds of gas components at plural temperatures; and a formula generation module for generating a calorific value calculation formula having heat dissipation constant or thermal conductivities at the plural temperatures as independent variables and a calorific value as a dependent variable on the basis of calorific value values of the plural mixed gases and the heat dissipation constant values or the thermal conductivity values measured at the plural temperatures.

Abstract: It is difficult to appropriately estimate the colorimetric values of an arbitrary patch at a desired temperature with respect to a medium containing a fluorescent whitening agent in consideration of the influence of the fluorescent whitening agent. A target temperature and media type are designated (S601, S602), patches of a plurality of colors are formed on a set medium, and a temperature immediately after fixing (second temperature), patch colorimetric values, and medium white colorimetric values are acquired (S606, S607). Medium white calorimetric values at the target temperature are generated based on the acquired medium white calorimetric values and medium white colorimetric values at a first temperature, which are acquired in advance (S608). Patch calorimetric values at the target temperature are estimated based on the generated medium white colorimetric values and patch colorimetric values.