Abstract:
A game machine comprises a game image generating unit that displays video of a plurality of reels on a video display screen, a losing reel ascertaining unit that ascertains a losing reel on the basis of the game result ascertained by the game result determining unit, winning reel ascertaining unit that ascertains a winning reel on the basis of the game result, a losing reel stopping unit that displays the symbols of the losing reel in a stopped condition, and a winning reel stopping unit that displays the symbols of the winning reel in a stopped condition after the symbols of all of the losing reels have been displayed in a stopped condition by the losing reel stopping unit.
Abstract:
Disclosed is a game machine capable of raising game cycle execution frequency and increasing the enjoyment and fun of a game in loop play. A game machine includes: a game result determining part (82) for determining a game result for each game cycle; a game result displaying part (83, 30) for executing display of the game result for the game cycle; a loop play part (86) for executing loop play in which the game cycle is automatically repeated multiple times; and a display judging part (88) for judging whether or not a given display condition is satisfied for each game cycle in the loop play, in which: in a case of the game cycle judged by the display judging part (88) to have satisfied the display condition, the next game cycle is executed after executing the display of the game result; and in a case of the game cycle judged by the display judging part (88) to have failed to satisfy the display condition, the next game cycle is executed without executing the display of the game result.
Abstract:
With regard to a temperature sensor, a control logic circuit conducts control of the temperature sensor. During preparation of the temperature sensor, the control logic circuit reads the result of measurement of the property pertaining to the ambient temperature from the temperature sensor circuit, obtains the initial value and correction value from the result, and stores the pertinent values in the fuse memory. At times of operation of the temperature sensor, the control logic circuit reads the initial value and correction value from the fuse memory, and corrects the measurement values of the temperature sensor circuit using the pertinent values.
Abstract:
A method for producing lactones, which comprises reacting an amide compound of Formula (I): [wherein X represents a halogen atom; R, R′ and R1 to R6 each independently represents a hydrogen atom or any desired substituent; and n represents an integer of 0 to 2] with an aqueous medium.
Abstract:
A geomagnetic sensor including a geomagnetism detection unit; a fuse memory for storing prescribed data according to a state of the electrical cut-off or connection; a correction data writing unit for inputting measurement values of said geomagnetism detection unit during manufacture, for obtaining correction values that correct a temperature property of the measurement values of the geomagnetism detection unit, and for writing said correction values into said fuse memory; a correction data reading unit for reading said correction values from said fuse memory at times of actual use after manufacture; and a correction unit for inputting the measurement values of said geomagnetism detection unit at times of actual use, and for correcting the measurement values of said geomagnetism detection unit based on the correction values read by said correction data reading unit.
Abstract:
With regard to the geomagnetic sensor 1, the control logic circuit 11 conducts control of the geomagnetic sensor 1. When the geomagnetic sensor 1 is installed in a cell phone device, the control logic circuit 11 reads the measurement values pertaining to the ambient magnetic field from the geomagnetic sensor circuit 12, obtains the offset value from the pertinent measurement values, and stores it in the fuse memory 13. At times of measurement by the geomagnetic sensor 1, the control logic circuit 11 reads the offset value from the fuse memory 13, and corrects the measurement values of the geomagnetic sensor 12 using the pertinent value. With regard to the temperature sensor 201, the control logic circuit 211 conducts control of the temperature sensor 201. During preparation of the temperature sensor 201, the control logic circuit 211 reads the result of measurement of the property pertaining to the ambient temperature from the temperature sensor circuit 212, obtains the initial value and correction value from the result, and stores the pertinent values in the fuse memory 213. At times of operation of the temperature sensor 201, the control logic circuit 211 reads the initial value and correction value from the fuse memory 213, and corrects the measurement values of the temperature sensor circuit 212 using the pertinent values. The correction coefficients a11-a22 of the magnetic sensors are measured during LSI shipment inspection. The correction data D1-D4 obtained from these correction coefficients a11-a22 are written into the fuse memory 315. The control circuit 308 inputs the detection outputs Sx and Sy of the magnetic sensors 310 and 311 to the internal register during geomagnetism detection. The correction data D1-D4 is read from the fuse memory 315. Detection outputs Sx and Sy are corrected using formulas (309) to (312).
Abstract:
An X-ray diagnosis apparatus for obtaining an X-ray image comprises an X-ray radiator, a detector, a first mechanism, a second mechanism, a controller, and an image processor. The X-ray radiator is configured to radiate an X-ray to a specimen. The detector is configured to detect an X-ray data resulting from the X-ray. The first mechanism is coupled to the detector and is configured to shift the detector along a detecting plane of the detector. The second mechanism is coupled to the X-ray radiator and is configured to change a radiation direction of the X-ray against the detector. The controller is configured to control the second mechanism in accordance with the shift of the detector. The image processor is coupled to the detector and is configured to prepare a fluoroscopic image data as the X-ray image based on the X-ray data. The image processor also corrects a deformation of the fluoroscopic image data.
Abstract:
A method for producing lactones, which comprises reacting an amide compound of Formula (I): [wherein X represents a halogen atom; R, R′ and R1 to R6 each independently represents a hydrogen atom or any desired substituent; and n represents an integer of 0 to 2] with an aqueous medium.
Abstract:
A process for producing an optically active aminopolycarboxylic acid, such as S,S-ethylenediamine-N,N'-disuccinic acid, from a mixture of a diamine, such as ethylenediamine, with fumaric acid using a microorganism having a lyase activity, wherein at least one metal ion selected from the group consisting of an alkaline earth metal, iron, zinc, copper, nickel, aluminum, titanium and manganese is added to the reaction system. According to this process, aminopolycarboxylic acids, such as S,S-ethylenediamine-N,N'-disuccinic acid, or metal complexes thereof, can be appropriately and efficiently produced while improving the reaction yield.
Abstract:
An output of a TV camera for picking up an X-ray fluoroscopic image is supplied to an image memory. An output of an electrocardiograph is supplied to a cardiograph memory. The output from the image memory is subjected to subtraction processing to obtain an angiogram and the angiogram data is supplied to an image synthesizing circuit. The image synthesizing circuit reads out data of the latest several seconds from the cardiograph memory, and produces a cardiogram on the basis of the read-out data. A synthesis image, in which the cardiogram is superimposed on part of the angiogram, is displayed on a display. The outputs from the image memory and the cardiograph memory are supplied to a recording/reproducing processor. The image data is compressed, and both the compressed image data of one field and the cardiograph output data representing the cardiogram superimposed on the field image are recorded on a recording area of one filed image of a video tape. The data reproduced from the video tape is separated into image data and cardiograph output data at every field by the recording/reproducing processor. The image data is data-expanded and supplied to the image memory, and the cardiograph output data is supplied to the cardiograph memory.