Abstract: An image capturing apparatus 100 comprises an electronic image capture subunit 2, a determiner 8a, an image acquisition control unit 8b and a subject image extractor 8c. The determiner 8a sequentially determines whether a subject image is present in each of the images captured sequentially by the image capture subunit 2. The image acquisition control unit 8b acquires a subject-present background image and a subject-absent background image based on the result of the determination by the determiner 8a. The subject image extractor 8c extracts the subject image from the subject-background image based on difference information between each pair of corresponding pixels of the subject-background image and the background image each acquired by the image acquisition control unit 8b.

Abstract: A camera device 100 comprises a CPU 13, a characteristic area specifier 8d, and a combine subunit 8f. CPU 13 detects a command to combine a background image and a foreground image. In response to detection of the command by CPU 13, the characteristic area specifier 8d specifies a foreground area for the foreground image. The combine subunit 8f combines the background image and the foreground image such that the foreground area specified by the characteristic area specifier 8d is in front of the foreground image.

Abstract: An imaging device that is connectable to an external display device includes a decoder that, based on an instruction to reproduce coded moving image data recorded in any one of an internal recorder, a memory card and an external recording device, decodes data and sequentially obtains a plurality of frames in a predetermined order. The imaging device also includes a blur estimator that sequentially obtains a total motion vector of each frame corresponding to an obtaining speed and a predetermined order of frames, a blur correction processor that sequentially corrects the blur of the frames based on respective total motion vectors, and a second display processor that sequentially outputs the blur corrected frames to the external display. Blur correction processing for moving images output to the external display is performed suitably.

Abstract: A camera device 100 comprises a recording medium 9, an operator input unit 12, and an image synthesis unit 8g. The recording medium 9 stores a plurality of images and a like number of sets of image capturing conditions in associated relationship. The operator input unit 12 issues a command to read a plurality of images from the recording medium 9 and to synthesize the images. The image synthesis unit 8g reads, from the recording medium 9, a plurality of sets of image capturing conditions each associated with a respective one of the images, the command for synthesis of which is issued by the operator input unit 12, processes the remaining one(s) of the plurality of images excluding a particular one image so as to fit the one image in image capturing conditions, and then synthesizes a resulting processed image(s) with the one image.

Abstract: The present invention provides a refrigerating machine oil, a compressor oil composition, a hydraulic oil composition, a metalworking oil composition, a heat treating oil composition, a lubricating oil composition for machine tools and a lubricating oil composition which comprise a lubricating oil base oil having % CA of not more than 2, % CP/% CN of not less than 6 and an iodine value of not more than 2.5.

Abstract: An image capturing apparatus 100 comprising a built-in memory 8 which stores a plurality of images captured by an image capturing unit 1 and a system file F2 that registers reproduction control information involving a position where reproduction of each of the images by a display 5 is permitted or prohibited, a GPS unit 2 to position the current position of the image capturing apparatus, and a CPU 9 which compares the positioned current position of the image capturing apparatus with the reproduction control information registered in the system file to control reproduction of the image by the display.

Abstract: Disclosed is an imaging device connected to an external display device. The imaging device includes a decoder that, based on an instruction to reproduce coded moving image data recorded in any one of a internal recorder, a memory card M and an external recording device, decodes the data and sequentially obtains a plurality of frames in a predetermined order, a blur estimator that sequentially obtains a total motion vector of each frame corresponding to an obtaining speed and a predetermined order of frames, a blur correction processor that sequentially corrects the blur of the frames based on respective total motion vectors, and a second display processor that sequentially outputs the blur corrected frames to the external display. Blur correction processing for moving images output to the external display is performed suitably.

Abstract: A rewritable optical recording medium includes a substrate and a phase-change type recording layer. A portion in a crystalline state corresponds to an unrecorded or erased state, and a portion in an amorphous state correspond to a recorded state, to record EFM modulated information by forming amorphous marks by irradiating the recording layer with a recording laser beam, and the recording is carried out by irradiating a recording laser beam having a wavelength of about 780 nm through an optical system having a numerical aperture NA of 0.5 or 0.55, at 24-times velocity or 32-times velocity of the reference velocity.

Abstract: Disclosed is an imaging device 100 connected to an external display device 600. The imaging device 100 includes a decoder 5 that, based on an instruction to reproduce coded moving image data recorded in any one of a internal recorder 3, a memory card M and an external recording device 500, decodes the data and sequentially obtains a plurality of frames in a predetermined order, a blur estimator 10C that sequentially obtains a total motion vector of each frame corresponding to an obtaining speed and a predetermined order of frames, a blur correction processor 10 that sequentially corrects the blur of the frames based on respective total motion vectors, and a second display processor 8 that sequentially outputs the blur corrected frames to the external display. Blur correction processing for moving images output to the external display is performed suitably.

Abstract: In an optical recording method used when information is recorded in a phase-change recording layer of a large-capacity rewritable optical recording medium such as a DVD-RW, one block pulse is used as a recording pulse for forming one recording mark when a recording velocity is higher than a recording linear velocity at which the rewritable optical recording medium can be rewritten, whereas a pulse train comprised of a plurality of short pulses is used as the recording pulse for forming one recording pulse when the recording velocity is within recording linear velocities at which the rewritable optical recording medium can be rewritten, whereby high-velocity recording is realized.

Abstract: In an optical recording method used when information is recorded in a phase-change recording layer of a large-capacity rewritable optical recording medium such as a DVD-RW, one block pulse is used as a recording pulse for forming one recording mark when a recording velocity is higher than a recording linear velocity at which the rewritable optical recording medium can be rewritten, whereas a pulse train comprised of a plurality of short pulses is used as the recording pulse for forming one recording pulse when the recording velocity is within recording linear velocities at which the rewritable optical recording medium can be rewritten, whereby high-velocity recording is realized.

Abstract: In an optical recording method used when information is recorded in a phase-change recording layer of a large-capacity rewritable optical recording medium such as a DVD-RW, one block pulse is used as a recording pulse for forming one recording mark when a recording velocity is higher than a recording linear velocity at which the rewritable optical recording medium can be rewritten, whereas a pulse train comprised of a plurality of short pulses is used as the recording pulse for forming one recording pulse when the recording velocity is within recording linear velocities at which the rewritable optical recording medium can be rewritten, whereby high-velocity recording is realized.

Abstract: A through image with a trace frame is displayed. A subject on which a trace frame is superposed when a shutter key is half-depressed is determined as a target image. A trimming frame is additionally displayed. Whether the target image has moved within the through image or not is determined. When the target image has moved within the through image, the trace frame and the trimming frame are displayed so as to follow the target image. Then, whether the center vector of the trimming frame z four surrounding vectors is established or not is determined. When this determination results in YES, it is assumed that the target image is larger than the trimming frame and the trimming frame is enlarged by a predetermined amount.

Abstract: The present invention provides CD-RW which makes high velocity recording at a level of at least 24-times velocity possible, rewritable DVD which makes high velocity recording at a level of at least 6-times velocity possible, and a recording method therefor, while maintaining interchangeability with conventional CD-RW standards and rewritable DVD standards. A rewritable optical recording medium comprising a substrate and a phase-change type recording layer, wherein a portion in a crystalline state corresponds to an unrecorded or erased state, and a portion in an amorphous state correspond to a recorded state, to record EFM modulated information by forming amorphous marks by irradiating the recording layer with a recording laser beam, and wherein recording is carried out by irradiating a recording laser beam having a wavelength of about 780 nm through an optical system having a numerical aperture NA of 0.5 or 0.

Abstract: A rewritable optical recording medium including: a substrate having a guide groove formed thereon, a phase-change type recording layer, a portion in a crystalline state of the phase-change type recording layer corresponds to an unrecorded or erased state, and a portion in an amorphous state of the phase-change type recording layer corresponds to a recorded state, so that an amorphous mark corresponding to the recorded state is formed upon irradiation with a recording laser beam. The phase-change type recording layer contains Sb as a main component, and further contains Ge and/or Te, a content of Ge is from 1 atomic % to 30 atomic %, and a content of Te is from 10 atomic % to 30 atomic %, and in the phase-change type recording layer, Sb/Te is at least 4.5, and the atomic ratio of Ge to Te is from 1:3 to 1:20.

Abstract: A metal part is uniformly cooled by uniformly breaking a vapor film formed when a cooling liquid vaporizes on a surface of the metal part. Oscillations are applied to the vapor film formed on the surface of the metal part, whereby the vapor film is broken without the stirring of a cooling liquid 1. The cooling liquid 1 is stirred after the vapor film begins to be broken, whereby bubbles formed by the breakage of the vapor film are caused to diffuse in the cooling liquid 1.

Abstract: A rewritable optical recording medium includes a substrate and a phase-change type recording layer. A portion in a crystalline state corresponds to an unrecorded or erased state, and a portion in an amorphous state correspond to a recorded state, to record EFM modulated information by forming amorphous marks by irradiating the recording layer with a recording laser beam, and the recording is carried out by irradiating a recording laser beam having a wavelength of about 780 nm through an optical system having a numerical aperture NA of 0.5 or 0.55, at 24-times velocity or 32-times velocity of the reference velocity.

Abstract: In an optical recording method used when information is recorded in a phase-change recording layer of a large-capacity rewritable optical recording medium such as a DVD-RW, one block pulse is used as a recording pulse for forming one recording mark when a recording velocity is higher than a recording linear velocity at which the rewritable optical recording medium can be rewritten, whereas a pulse train comprised of a plurality of short pulses is used as the recording pulse for forming one recording pulse when the recording velocity is within recording linear velocities at which the rewritable optical recording medium can be rewritten, whereby high-velocity recording is realized.

Abstract: Disclosed is an imaging device 100 connected to an external display device 600. The imaging device 100 includes a decoder 5 that, based on an instruction to reproduce coded moving image data recorded in any one of a internal recorder 3, a memory card M and an external recording device 500, decodes the data and sequentially obtains a plurality of frames in a predetermined order, a blur estimator 10C that sequentially obtains a total motion vector of each frame corresponding to an obtaining speed and a predetermined order of frames, a blur correction processor 10 that sequentially corrects the blur of the frames based on respective total motion vectors, and a second display processor 8 that sequentially outputs the blur corrected frames to the external display. Blur correction processing for moving images output to the external display is performed suitably.

Abstract: An engaging groove part 25 is provided at the outer circumferential edge of a rotor 20b of an outer-rotor type motor directly connected to the main shaft 14 of a drum 13, and on the other hand, a drum locking device 21 is provided directly below the shaft. The drum locking device 21 is constructed so that a lock pin moves up and down in response to rotation of a torque motor, and when the lock pin advances and fits into the groove of the engaging groove pan 25, the position of the drum 13 is fixed. Thereby, the stopping position of the drum can be fixed with a simple construction.