Abstract: According to one embodiment, an radar apparatus includes a signal processor, a transmitting unit, an antenna, a first receiving unit, and a second receiving unit. The signal processor generates first or second pulses, and generates a control signal having first or second states. The transmitting unit converts the first and second pulses into first and second transmission pulses. The antenna radiates the first and second transmission pulses and receives reflection pulses to generate a reception signal. The first receiving unit includes first and second receiving circuits which processes the reception signal to generate first and second processed signals, respectively, and outputs one of the first and second processed signals depending on the state of the control signal. The second receiving unit processes the one of the first and second processed signals.

Abstract: According to one embodiment, an radar apparatus includes a signal processor, a transmitting unit, an antenna, a first receiving unit, and a second receiving unit. The signal processor generates first or second pulses, and generates a control signal having first or second states. The transmitting unit converts the first and second pulses into first and second transmission pulses. The antenna radiates the first and second transmission pulses and receives reflection pulses to generate a reception signal. The first receiving unit includes first and second receiving circuits which processes the reception signal to generate first and second processed signals, respectively, and outputs one of the first and second processed signals depending on the state of the control signal. The second receiving unit processes the one of the first and second processed signals.

Abstract: By using an image signal acquired by picking up a sample to be inspected by a color video camera, penetrant inspection and magnetic-particle inspection which are non-destructive inspections are carried out so that deficiency candidates including a pseudo deficiency are automatically detected and are displayed on a screen. A real deficiency can be detected from the deficiency candidates displayed on the screen. As image data is stored in memory means, information of a deficiency can be repeatedly reproduced on the screen. In the penetrant inspection, the chromaticity at each position on an image is acquired, a deficiency candidate is extracted based on the chrominance, and the deficiency is distinguished from a pseudo deficiency based on the differential value of the chrominance.

Abstract: The present invention relates to a method for inspecting a crack in a metal surface or the like, and, particularly, to an inspection method and apparatus for nondestructive inspection such as liquid penetrant inspection and magnetic particle testing. The present invention provides a flaw inspection method that essentially comprises the steps of illuminating a surface of a sample to be inspected, obtaining an image of the surface, characterizing a potential flaw on the inspected surface by processing the obtained image, displaying an image of the potential flaw, verifying that the potential flaw is a true flaw, and storing an image of the verified flaw in memory.

Abstract: By using an image signal acquired by picking up a sample to be inspected by a color video camera, penetrant inspection and magnetic-particle inspection which are non-destructive inspections are carried out so that deficiency candidates including a pseudo deficiency are automatically detected and are displayed on a screen. A real deficiency can be detected from the deficiency candidates displayed on the screen. As image data is stored in memory means, information of a deficiency can be repeatedly reproduced on the screen. In the penetrant inspection, the chromaticity at each position on an image is acquired, a deficiency candidate is extracted based on the chrominance, and the deficiency is distinguished from a pseudo deficiency based on the differential value of the chrominance.

Abstract: A high-frequency receiving unit is provided with a casing configured to incorporate a high-frequency circuit which receives a high-frequency signal and a signal processing circuit which obtains at least one of a picture signal and a data signal from the received high-frequency signal, a display disposed in an opening of the case and configured to display the output of the signal processing circuit, and an antenna configured to receive the high-frequency signal and to supply it to the high-frequency circuit, wherein the antenna is disposed in any one of a top surface, a bottom surface, a right side surface, a left side surface and a back surface on the back side of an intermediate position for dividing the casing into two portions in the direction of depth.

Abstract: Using an image signal acquired by picking up a sample to be inspected by a color video camera, penetrant inspection and magnetic-particle inspection, which are non-destructive inspections, are carried out so that deficiency candidates, including a pseudo deficiency, are automatically detected and displayed on a screen. A real deficiency can be detected from the displayed deficiency candidates. As image data is stored in memory means, information of a deficiency can be repeatedly reproduced on the screen. In the penetrant inspection, the chromaticity at each position on an image is acquired, a deficiency candidate is extracted based on the chrominance, and the deficiency is distinguished from a pseudo deficiency based on the differential value of the chrominance. A polarization filter eliminates regular reflection originating from illumination in the penetrant inspection, and an ultraviolet-rays cutting filter prevents noise in the magnetic-particle inspection.

Abstract: The present invention relates to a method for inspecting a crack in a metal surface or the like, and, particularly, to an inspection method and apparatus for nondestructive inspection such as liquid penetrant inspection and magnetic particle testing. The present invention provides a flaw inspection method that essentially comprises the steps of illuminating a surface of a sample to be inspected, obtaining an image of the surface, characterizing a potential flaw on the inspected surface by processing the obtained image, displaying an image of the potential flaw, verifying that the potential flaw is a true flaw, and storing an image of the verified flaw in memory.

Abstract: The present invention relates to a method for inspecting a crack in a metal surface or the like, and, particularly, to an inspection method and apparatus for nondestructive inspection such as liquid penetrant inspection and magnetic particle testing. The present invention provides a flaw inspection method that essentially comprises the steps of illuminating a surface of a sample to be inspected, obtaining an image of the surface, characterizing a potential flaw on the inspected surface by processing the obtained image, displaying an image of the potential flaw, verifying that the potential flaw is a true flaw, and storing an image of the verified flaw in memory.

Abstract: A cradle receives RF signals, performs level control of the RF signals, and emits the RF signals to a main-body unit installed to the cradle. When the main-body unit is installed, the cradle receives a video signal from the main-body unit, applies signal processing to the video signal, and then outputs it. Concurrently, the cradle outputs power-supply power to the main-body unit. Further, the cradle performs level control of the received RF signals to a first level when the main-body unit is installed, and performs level control of the received RF signals to a second level higher than the first level when the main-body unit is not installed.

Abstract: In image-capture inspection of electronic displays, the object of the present invention is to reduce moire generation, improve inspection precision by making pixel defects easier to discover, and allowing quantitative evaluation of these pixel defects. The relative positioning of the electronic display and an imaging element is changed by very small amounts of 1/n of the pixel pitch. The n images are arranged by pixel and the images are combined by taking the moving average of the image data values to reduce the image-capture moires generated during the image capture operations. The composite image is used to inspect pixel defects in the electronic display.

Abstract: A high-frequency receiving unit is provided with a casing configured to incorporate a high-frequency circuit which receives a high-frequency signal and a signal processing circuit which obtains at least one of a picture signal and a data signal from the received high-frequency signal, a display disposed in an opening of the case and configured to display the output of the signal processing circuit, and an antenna configured to receive the high-frequency signal and to supply it to the high-frequency circuit, wherein the antenna is disposed in any one of a top surface, a bottom surface, a right side surface, a left side surface and a back surface on the back side of an intermediate position for dividing the casing into two portions in the direction of depth.

Abstract: A method for repairing a liquid crystal display provided with a light transmitting member having an image display section. The method includes filling a filler, which has a refractive index substantially equal to that of the light transmitting member, into a scratch or scratches formed on inside and outside surfaces of the light transmitting member so as to repair the scratch or scratches.

Abstract: An image display device for repairing a scratch or scratches on a surface or surfaces of a light transmitting member having an image display section such an extent that the presence of the scratch or scratches cannot be visually perceived at at least in a bright view distance in all directions, and in which device a liquid filler having a refractive index equivalent to or on the same order of that of the light transmitting member is locally filled only into an area of the scratch or scratches, and the filler is cured. By controlling an amount of the filler so that a difference in level between a surface of the light transmitting member and a surface of the filler is at least ±5.0 &mgr;m or less and that an angle defined between a surface of the filler and a surface of the light transmitting member is at least 45 degrees or less or preferably at least 10 degrees or less, it is possible to exhibit display quality to such a degree that the presence of the scratch or scratches cannot be recognized.

Abstract: A method for repairing a liquid crystal display provided with a light transmitting member having an image display section. The method includes filling a filler, which has a refractive index substantially equal to that of the light transmitting member, into a scratch or scratches formed on inside and outside surfaces of the light transmitting member so as to repair the scratch or scratches.

Abstract: Disclosed is a cardio-protective agent for use in prophylaxis and treatment of myocardial disease and/or myocardial cell injury, which comprises an isoquinolinesulfonamide derivative represented by the following formula or a pharmaceutically acceptable acid addition salt thereof ##STR1## wherein R.sup.1 represents H, Cl or OH; each of A, R.sup.2, R.sup.3 and R.sup.4 is selected depending on the type of R.sup.1, wherein A represents C.sub.2 -C.sub.6 alkylene, which is optionally substituted with C.sub.1 -C.sub.10 alkyl, cinnamyl, phenyl or benzyl, R.sup.2 represents H or cycloalkyl having 6 carbon atoms or less, R.sup.3 represents H, straight or branched C.sub.1 -C.sub.6 alkyl, cinnamyl, phenyl or benzyl, or R.sub.2 and R.sub.3 together form alkylene having 4 carbon atoms or less, which is optionally substituted with C.sub.1 -C.sub.10 alkyl, phenyl or benzoyl; and R.sup.4 represents H, straight or branched C.sub.1 -C.sub.6 alkyl, phenyl, benzyl, benzoyl, cinnamyl, cinnamoyl, furoyl, ##STR2## or R.sup.3 and R.

Abstract: A method for prevention and treatment of viral infectious diseases using a medicament containing an effective amount of a compound of the formula ##STR1## where R.sup.1 is hydrogen or hydroxy, or acid addition salt thereof.

Abstract: A copper base alloy for terminals that is of the Cu-Ni-Sn-P or Cu-Ni-Sn-P-Zn system and that has a tensile strength of at least 50 kgf/mm.sup.2, a spring limit of at least 40 kgf/mm.sup.2, a stress relaxation of not more than 10% and a conductivity of at least 30% IACS is provided. Terminals the spring portion or the entire part of which is produced from that copper base alloy, having an insertion/extraction force of 0.2-3 kgf and a resistance of not more than 3 m.OMEGA. at low voltage and current as initial performance, with the added characteristic that the terminals will experience not more than 20% stress relaxation are also provided. The alloy is superior to the conventional bronze, phosphor bronze and Cu-Sn-Fe-P alloys for terminals in terms of tensile strength, spring limits, stress relaxation characteristic and conductivity and, hence, the terminals manufactured from those alloys have higher performance and reliability than the terminals made of the conventional copper base alloys for terminals.

Abstract: Disclosed is a substituted sulfonamide derivative represented by formula (I) or a pharmaceutically acceptable acid addition salt thereof ##STR1## wherein A represents a hydrogen atom or an alkyl group, G represents a methylene group or an alkylene group, Q.sup.1 represents an ethylene group, Q.sup.2 represents an ethylene group or a trimethylene group, E represents an alkyl group or a group represented by a formula selected from formula (II-a) and (II-b)- G - J - Z (II-a),- G - Z (II-b)wherein G is as defined above, J represents an oxygen atom, a sulfur atom or a nitrogen atom, and Z represents an aryl group unsubstituted or substituted with an alkyl group or an alkoxy group, or a heterocyclic group, andX represents a quinolyl group, an isoquinolyl group, a benzothiazolyl group or a quinazolin-4-on group.

Abstract: A copper base alloy for terminals that is superior in all aspects of tensile strength, spring limits, conductivity, and stress relaxation characteristics can be produced by a process repeating the cycles consisting of hot-rolling, cold-rolling and annealing, in which process an ingot is prepared by melting and casting an alloy containing 1.0-3.0 wt % Ni, 0.02-0.15 wt % P. 0.5-2.0 wt. % Sn and, as an optional component, 0.01-2.0 wt % Zn, with the balance being Cu and incidental impurities, and with the ratio of weight percentages of Ni to P being within the range of 10-50%.