Abstract: A personal watercraft includes: a watercraft body including a boarding section on which a driver boards and a sub-boarding section on which a mounted object other than the driver is mounted; a mounted object overboard detection unit that detects that the mounted object has fallen overboard from the watercraft body; and a notification unit that performs notification control to notify the driver of the falling overboard through a specific control target when the mounted object overboard detection unit detects that the mounted object has fallen overboard.

Abstract: A plate body 2, multiple hologram layers 3 are provided in the thickness direction of the plate body 2, and at least one of the multiple hologram layers 3 is formed of spirally continuous hologram bands 4. Erasure areas 4A and 4B and non-erasure areas 4C and 4D of the hologram band 4 are provided in the length direction of the hologram band 4. Non-erasure areas 4E and 4F of the hologram band 4 are formed on both sides in the direction orthogonal to the length direction of the hologram band 4 in the erasure areas 4A and 4B.

Abstract: A plate body 2, multiple hologram layers 3 are provided in the thickness direction of the plate body 2, and at least one of the multiple hologram layers 3 is formed of spirally continuous hologram bands 4. Erasure areas 4A and 4B and non-erasure areas 4C and 4D of the hologram band 4 are provided in the length direction of the hologram band 4. Non-erasure areas 4E and 4F of the hologram band 4 are formed on both sides in the direction orthogonal to the length direction of the hologram band 4 in the erasure areas 4A and 4B.

Abstract: To accomplish the object, the invention provides a record medium including a plate body 2; multiple hologram layers 3 formed in the thickness direction of the plate body 2; and hologram bands 4 formed in at least one of the multiple hologram layers 3. The hologram band 4 is formed with erasure areas 4A and 4B of the hologram band 4 with no hologram band 4 in the direction orthogonal to the length direction of the hologram band 4.

Abstract: In a voltage conversion section 154 for converting a supply voltage from a battery 206 for driving a light source 71 into a supply voltage to an LD drive section 116, the supply voltage to the LD drive section 116 is controlled from a preset initial voltage to a voltage resulting from adding a voltage set within a given range in which the lower limit is the voltage at which the power loss of a transistor of the LD drive section 116 becomes the lowest in a current range in which the light source can be driven in a predetermined light quantity and the drive voltage of the light source.

Abstract: Clients are prevented from issuing allocation requests to the same items by using a condition depending upon work and a selection key when selecting items to be allocated. By thus selecting allocation subjects so as not to cause competition and thereby reducing exclusive waiting, the efficiency of allocation processing in a large scale workflow system can be raised.

Abstract: In order to improve a measuring precision in case of measuring properties of the optical fiber to be measured, in accordance with returned lights which have wavelengths different from each other, detection is carried out with respect to the returned lights of the wavelengths different from each other, at a timing based on difference of propagation rates between the returned lights in the optical fiber to be measured, and error between the returning points is compensated with respect to each returned light, in the optical pulse testing device for inputting the optical pulse to the optical fiber to be measured, to detect returned lights which have wavelengths different from each other and which are returned back from passing points in the optical fiber to be measured, respectively, in order to measure the properties of the optical fiber to be measured, in accordance with detection results of the returned lights.

Abstract: An optical pulse ?0 from a light source section 10 is incident upon an optical fiber 1 through an optical demultiplexer section 20, and its return light is supplied to an optical/electrical processing section 30 as the light of a plurality of different wavelengths ?1 to ?n by the optical demultiplexer section 20, and is respectively converted into electrical signals. Signals of the converted return light are respectively sampled and are averaged by respective processing circuits 402 to 40n of a signal processing section 40 so as to be formed as desired measurement waveforms. In the measurement waveforms, which are the results, data for corresponding sampling points are expressed as measurement data at an identical distance in the optical fiber.

Abstract: In order to improve a measuring precision in case of measuring properties of the optical fiber to be measured, in accordance with returned lights which have wavelengths different from each other, detection is carried out with respect to the returned lights of the wavelengths different from each other, at a timing based on difference of propagation rates between the returned lights in the optical fiber to be measured, and error between the returning points is compensated with respect to each returned light, in the optical pulse testing device for inputting the optical pulse to the optical fiber to be measured, to detect returned lights which have wavelengths different from each other and which are returned back from passing points in the optical fiber to be measured, respectively, in order to measure the properties of the optical fiber to be measured, in accordance with detection results of the returned lights.

Abstract: In order to improve a measuring precision in case of measuring properties of the optical fiber to be measured, in accordance with returned lights which have wavelengths different from each other, detection is carried out with respect to the returned lights of the wavelengths different from each other, at a timing based on difference of propagation rates between the returned lights in the optical fiber to be measured, and error between the returning points is compensated with respect to each returned light, in the optical pulse testing device for inputting the optical pulse to the optical fiber to be measured, to detect returned lights which have wavelengths different from each other and which are returned back from passing points in the optical fiber to be measured, respectively, in order to measure the properties of the optical fiber to be measured, in accordance with detection results of the returned lights.

Abstract: In order to improve a measuring precision in case of measuring properties of the optical fiber to be measured, in accordance with returned lights which have wavelengths different from each other, detection is carried out with respect to the returned lights of the wavelengths different from each other, at a timing based on difference of propagation rates between the returned lights in the optical fiber to be measured, and error between the returning points is compensated with respect to each returned light, in the optical pulse testing device for inputting the optical pulse to the optical fiber to be measured, to detect returned lights which have wavelengths different from each other and which are returned back from passing points in the optical fiber to be measured, respectively, in order to measure the properties of the optical fiber to be measured, in accordance with detection results of the returned lights.

Abstract: An optical pulse &lgr;0 from a light source section 10 is incident upon an optical fiber 1 through an optical demultiplexer section 20, and its return light is supplied to an optical/electrical processing section 30 as the light of a plurality of different wavelengths &lgr;1 to &lgr;n by the optical demultiplexer section 20, and is respectively converted into electrical signals. Signals of the converted return light are respectively sampled and are averaged by respective processing circuits 402 to 40n of a signal processing section 40 so as to be formed as desired measurement waveforms. In the measurement waveforms, which are the results, data for corresponding sampling points are expressed as measurement data at an identical distance in the optical fiber.

Abstract: Clients are prevented from issuing allocation requests to the same items by using a condition depending upon work and a selection key when selecting items to be allocated. By thus selecting allocation subjects so as not to cause competition and thereby reducing exclusive waiting, the efficiency of allocation processing in a large scale workflow system can be raised.

Abstract: Clients are prevented from issuing allocation requests to the same items by using a condition depending upon work and a selection key when selecting items to be allocated. By thus selecting allocation subjects so as not to cause competition and thereby reducing exclusive waiting, the efficiency of allocation processing in a large scale workflow system can be raised.

Abstract: In the operation to access data on a disk, the data reading operation is enabled before the rotary speed of the spindle motor of the disk is completely regulated to thereby minimize the access time and power consumption of the spindle motor for acceleration or deceleration thereof. When the actuator is in the access operation, the motor is compulsorily driven. From a time when the actuator reaches a target track in the access operation to a time when the rotary speed of the motor becomes equal to a predetermined rotary speed, the frequency control signal is created according to the position of the actuator and the rotary speed of the spindle motor. After the data reading operation is commenced, to fixedly set the data transfer rate to a predetermined value, the variable reference clock signal is stepwise corrected to be equal to the fixed master clock signal in a frequency range calculated according to the motor rotating speed and the capture range.

Abstract: In the operation to access data on a disk, the data reading operation is enabled before the rotary speed of the spindle motor of the disk is completely regulated to thereby minimize the access time and power consumption of the spindle motor for acceleration or deceleration thereof. When the actuator is in the access operation, the motor is compulsorily driven. From a time when the actuator reaches a target track in the access operation to a time when the rotary speed of the motor becomes equal to a predetermined rotary speed, the frequency control signal is created according to the position of the actuator and the rotary speed of the spindle motor. After the data reading operation is commenced, to fixedly set the data transfer rate to a predetermined value, the variable reference clock signal is stepwise corrected to be equal to the fixed master clock signal in a frequency range calculated according to the motor rotating speed and the capture range.