Abstract: A method of identifying a cause of an interrupt related to an interrupt indication received from an interrupt indicating circuit in a processor, includes the steps of having the interrupt indicating circuit provided with a plurality of lowest-layer registers having a plurality of bits, each of the plurality of bits corresponding to the cause of the interrupt, and one or more upper-layer registers for aggregating the plurality of lowest-layer registers; forming a hierarchical structure with the one or more upper-layer registers and the plurality of lowest-layer register; and identifying the cause of the interrupt by having the processor read the upper-layer registers and the lowest-layer registers in order following the hierarchical structure.

Abstract: A method of identifying a cause of an interrupt related to an interrupt indication received from an interrupt indicating circuit in a processor, includes the steps of having the interrupt indicating circuit provided with a plurality of lowest-layer registers having a plurality of bits, each of the plurality of bits corresponding to the cause of the interrupt, and one or more upper-layer registers for aggregating the plurality of lowest-layer registers; forming a hierarchical structure with the one or more upper-layer registers and the plurality of lowest-layer register; and identifying the cause of the interrupt by having the processor read the upper-layer registers and the lowest-layer registers in order following the hierarchical structure.

Abstract: The present invention provides a garment with cup sections, which prevents the occurrence of slippage due to an action of a wearer or the like and thus can maintain the wearer's bust silhouette fine without any effort of correcting the slippage when it is worn. The garment with cup sections according to the present invention includes: a pair of cup sections (101) and a back cloth(s) (103). The back cloth (103) is arranged on the lateral sides of the cup sections (101). Each of the cup sections (101) includes a stretchable member(s) (101a) and a linear or strip-shaped interlining member(s) (105). At least one end of the interlining member (105) is on a verge's line-corresponding portion in the cup section (101), and the stretchable member (101a) is arranged in a region between the interlining member (105) and the lower edge of the cup section (101).

Abstract: A receiving apparatus includes: a signal-level detecting unit detecting a signal level of an input signal; a first signal-level converting unit including amplifiers, capturing the input signal and converting a signal level of the input signal; a switching unit switching an output of a converted level signal; a switching control unit selecting a specific amplifier and controlling the switching unit to select an output signal from the selected amplifier; a band-pass filter allowing only a predetermined frequency hand in the switched signal to pass; a second signal-level converting unit converting a signal level of an output signal from the amplifier into a predetermined signal level at which S/N of a mixer is maximized; the mixer mixing the converted signal passed through the band-pass filter, and an oscillation signal to generate an intermediate frequency signal; and a demodulating unit demodulating the intermediate frequency signal.

Abstract: Provided is a video sending apparatus, comprising: a compression unit configured to handle, in encoded video data encoded by pixel unit, a predetermined number of continuous pieces of pixel data as a differential-data-generating unit, the predetermined number being two or more, to cause the first piece of pixel data in the differential-data-generating unit to pass through, and to transform the pieces of pixel data other than the first piece of pixel data into pieces of differential data to thereby generate compressed video data, each of the pieces of differential data indicating a change amount from the preceding piece of pixel data in one of a positive direction and a negative direction; and a sending unit configured to send the compressed video data generated by the compression unit.

Abstract: An image formation apparatus includes a reception section, a function section, an image formation section and a power output device. The reception section is configured to be connected to a communication line over which image information and power are transmitted. The reception section receives the image information and the power transmitted over the communication line. The function section receives supply of the power received by the reception section, to function. The image formation section forms an image on a medium based on the image information received by the reception section or the function section. The power output device receives power supply from a commercial power supply. The power output device outputs power of a predetermined voltage to the image formation section.

Abstract: The electric power supply system includes a first terminal that electric power is supplied thereto from a first power supply to operate, a second terminal that is connected to the first terminal and that electric power is supplied thereto from a second power supply to operate, and a controller that controls electric power supply so as to supply electric power from the first terminal to the second terminal based on the operation state of the first terminal.

Abstract: A power supply system includes: a first device that commands an external device to perform processing, and is configured to supply electric power to the external device; a second device that is connected to the first device through a communications line, and that performs the processing in accordance with the command received from the first device; and a request unit that requests the first device to supply to the second device an amount of electric power needed for the second device performing the processing commanded by the first device, the first device determining whether or not to supply electric power to the second device, in accordance with at least one of; (i) content of the command sent to the second device, and (ii) the amount of electric power requested by the request unit and an amount of electric power which the first device is capable of supplying.

Abstract: A switching power supply unit is provided which provides improved response for frequency switching with a smooth rise in voltage. The switching power supply unit includes: a rectifier circuit for rectifying an alternating current from an AC power source into a direct current; a switching circuit for switching the current rectified by this rectifier circuit using a switching device; a pulse oscillator circuit for outputting a switching signal to the switching device; and a transformer circuit for stepping a voltage up or down depending on the current switched by this switching circuit. A frequency switching unit is also used to detect a pulse output from the switching circuit. Based on the state of this pulse output, the frequency switching unit changes a resistance using resistors, thereby switching the frequency of the switching signal in the pulse oscillator circuit.

Abstract: A power feed system includes: an information device; a terminal device that is connected the information processing device, and that has a power source; and a selection unit that selects, as power utilized by the terminal device, at least one of first power from the power source of the terminal device and second power supplied from the information processing device according to an operating state of the terminal device.

Abstract: The power supply management system is provided with an information processor and a terminal that is connected to the information processor by a communication line and a power supply line and that is controlled for power supply by the information processor. The terminal includes a monitor unit that is capable of monitoring at least any one of a signal received from the outside through the communication line and a signal detected inside by using the electric power supplied through the power supply line and a change unit that changes an internal power supply path so as to supply electric power other than the electric power supplied through the power supply line on the basis of the monitoring results of the monitor unit.

Abstract: A receiving apparatus includes: a signal-level detecting unit detecting a signal level of an input signal; a first signal-level converting unit including amplifiers, capturing the input signal and converting a signal level of the input signal; a switching unit switching an output of a signal whose level is converted by the amplifiers; a switching control unit selecting a specific amplifier out of the amplifiers and controlling the switching unit to select an output signal from the selected amplifier; a band-pass filter allowing only a predetermined frequency band in the signal, the output of which is switched by the switching unit, to pass; a second signal-level converting unit converting a signal level of an output signal from the amplifier into a predetermined signal level; a mixer mixing the signal passed through the band-pass filter, the signal level of which is converted by the second signal-level converting unit, and an oscillation signal to generate an intermediate frequency signal; and a demodulating

Abstract: A power supply system includes: a first device that commands an external device to perform processing, and is configured to supply electric power to the external device; a second device that is connected to the first device through a communications line, and that performs the processing in accordance with the command received from the first device; and a request unit that requests the first device to supply to the second device an amount of electric power needed for the second device performing the processing commanded by the first device, the first device determining whether or not to supply electric power to the second device, in accordance with at least one of; (i) content of the command sent to the second device, and (ii) the amount of electric power requested by the request unit and an amount of electric power which the first device is capable of supplying.

Abstract: An image formation apparatus includes a reception section, a function section, an image formation section and a power output device. The reception section is configured to be connected to a communication line over which image information and power are transmitted. The reception section receives the image information and the power transmitted over the communication line. The function section receives supply of the power received by the reception section, to function. The image formation section forms an image on a medium based on the image information received by the reception section or the function section. The power output device receives power supply from a commercial power supply. The power output device outputs power of a predetermined voltage to the image formation section.

Abstract: A power feed system includes: an information device; a terminal device that is connected the information processing device, and that has a power source; and a selection unit that selects, as power utilized by the terminal device, at least one of first power from the power source of the terminal device and second power supplied from the information processing device according to an operating state of the terminal device.

Abstract: The electric power supply system includes a first terminal that electric power is supplied thereto from a first power supply to operate, a second terminal that is connected to the first terminal and that electric power is supplied thereto from a second power supply to operate, and a controller that controls electric power supply so as to supply electric power from the first terminal to the second terminal based on the operation state of the first terminal.

Abstract: A switching power supply unit is provided which provides improved response for frequency switching with a smooth rise in voltage. The switching power supply unit includes: a rectifier circuit for rectifying an alternating current from an AC power source into a direct current; a switching circuit for switching the current rectified by this rectifier circuit using a switching device; a pulse oscillator circuit for outputting a switching signal to the switching device; and a transformer circuit for stepping a voltage up or down depending on the current switched by this switching circuit. A frequency switching unit is also used to detect a pulse output from the switching circuit. Based on the state of this pulse output, the frequency switching unit changes a resistance using resistors, thereby switching the frequency of the switching signal in the pulse oscillator circuit.

Abstract: The power supply management system is provided with an information processor and a terminal that is connected to the information processor by a communication line and a power supply line and that is controlled for power supply by the information processor. The terminal includes a monitor unit that is capable of monitoring at least any one of a signal received from the outside through the communication line and a signal detected inside by using the electric power supplied through the power supply line and a change unit that changes an internal power supply path so as to supply electric power other than the electric power supplied through the power supply line on the basis of the monitoring results of the monitor unit.

Abstract: A novel switching power supply device no more in need of a stand-by signal for turning on/off a switching element is provided. The switching power supply device is configured as having a main switching element Q1, wherein the switching power supply circuit is connected with a pulse oscillation circuit IC1 for outputting pulse signal; the pulse oscillation circuit and an output terminal of the main switching element are connected with an input section of an internal detection circuit 12; the internal detection circuit 12 is configured so as to control timing of switching of the main switching element Q1 upon detection of the pulse signal supplied from the pulse oscillation circuit IC1.

Abstract: A frame transmitting method and device insert a channel identifier into predetermined free bytes of parallel channel signals whose phases are different from each other without a phase adjustment, and convert the parallel channel signals into a serial signal to transmit a frame. A frame receiving method and device convert a serial signal whose phase is not adjusted on the transmission side into parallel channel signals, detect a frame pattern from a single channel signal within the parallel channel signals to detect a channel identifier inserted into a predetermined free byte of the single channel signal, and further rearrange channels between all of the parallel channel signals without a phase adjustment, based on the channel identifier.