Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: A semiconductor device which suppresses soft errors and functions as a non-volatile memory and a method for manufacturing the same. In the semiconductor device, a first non-volatile memory element and a second non-volatile memory element are electrically coupled to a first memory node and a second memory node through a first MOS transistor and a second MOS transistor respectively. A first capacitor and a second capacitor each have a storage node electrically coupled to the first memory node and the second memory node respectively and each have a cell plate to form a capacitance between the storage node and the cell plate.

Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: A recording/reproducing apparatus includes an encoding section, a decoding section, and a first judging section. The encoding section is configured to encode data that is to be recorded onto a recording medium into an LDPC (Low Density Parity Check) code. The decoding section is configured to decode the LDPC code read out from the recording medium. The judging section is configured to judge a block with a recording error based on one of a block error flag and an iterative decoding count output from the decoding section.

Abstract: Scanning rate in a capacitance change measuring circuit for a capacitive sensor device is enhanced. The circuit includes: an electrode drive section line-sequentially applying an input pulse signal to a plurality of columns of first electrode patterns in the capacitive sensor device; a peak hold circuit storing a peak level of a detection signal extracted from each column of second electrode patterns into a capacitive element as a corresponding potential; a current source initializing the potential in the capacitive element within one period of the input pulse signal; a comparator comparing the potential in the capacitive element with a reference value; and determination sections each determining whether or not an input operation using a human body or the like is executed, based on a timing information and a reference timing information, the timing information representing a timing when the potential held in the capacitive element crosses the reference value.

Abstract: An image pickup apparatus capable of distributing a picked up image through a network is provided. The image pickup apparatus includes an image pickup unit configured to pick up an image of a predetermined monitoring area and output an image signal thereof; a plurality of encoding units configured to simultaneously convert the image signal into video data of different encoding methods; a moving-object detecting unit configured to detect a moving object entered the monitoring area based on the image signal; an unmoving-object detecting unit configured to detect an unmoving object in the monitoring area based on the image signal; and a transmission control unit configured to control distribution of the video data to the network based on a detection result generated by the moving-object detecting unit and the unmoving-object detecting unit.

Abstract: An amount-of-compressed-data control method applicable to image data compression processing for compressing an amount of data is disclosed. The method includes the steps of: performing quantization by: dividing one digital image into multiple blocks each having n×n pixels; performing orthogonal transform on each block; and dividing n×n conversion coefficients resulting from the conversion by each threshold value of a quantization matrix including n×n threshold values each resulting from the multiplication of a predetermined coefficient S (where S is a positive real number); and variable-length encoding the quantized data.

Abstract: A wireless power transmission apparatus includes: a transmitter that wirelessly transmits electric power; and a receiver that can receive, in a resonant relation with the transmitter, a transmission signal including the electric power transmitted from the transmitter, wherein the receiver includes a frequency variable unit that can change a reception resonant frequency; a detecting unit that detects reception power; and a control unit that controls the frequency variable unit to perform frequency adjustment such that the reception power detected by the detecting unit is maximized.

Abstract: Scanning rate in a capacitance change measuring circuit for a capacitive sensor device is enhanced. The circuit includes: an electrode drive section line-sequentially applying an input pulse signal to a plurality of columns of first electrode patterns in the capacitive sensor device; a peak hold circuit storing a peak level of a detection signal extracted from each column of second electrode patterns into a capacitive element as a corresponding potential; a current source initializing the potential in the capacitive element within one period of the input pulse signal; a comparator comparing the potential in the capacitive element with a reference value; and determination sections each determining whether or not an input operation using a human body or the like is executed, based on a timing information and a reference timing information, the timing information representing a timing when the potential held in the capacitive element crosses the reference value.

Abstract: A recording/reproducing apparatus includes an encoding section, a decoding section, and a first judging section. The encoding section is configured to encode data that is to be recorded onto a recording medium into an LDPC (Low Density Parity Check) code. The decoding section is configured to decode the LDPC code read out from the recording medium. The judging section is configured to judge a block with a recording error based on one of a block error flag and an iterative decoding count output from the decoding section.

Abstract: An amount-of-compressed-data control method applicable to image data compression processing for compressing an amount of data is disclosed. The method includes the steps of: performing quantization by: dividing one digital image into multiple blocks each having n×n pixels; performing orthogonal transform on each block; and dividing n×n conversion coefficients resulting from the conversion by each threshold value of a quantization matrix including n×n threshold values each resulting from the multiplication of a predetermined coefficient S (where S is a positive real number); and variable-length encoding the quantized data.

Abstract: The polyvinyl chloride-based fiber of the present invention is formed of a vinyl chloride-based resin composition obtained by blending, with respect to (a) 100 parts by weight of a vinyl chloride-based resin, (b) 0.1 parts by weight to 0.6 parts by weight of a hydrotalcite-based thermostabilizer, (c) 0.1 parts by weight to 0.5 parts by weight of ?-diketone, (d) 0.2 parts by weight to 0.5 parts by weight of a calcium soap and a zinc soap, (e) 0.7 parts by weight to 1.7 parts by weight of a lubricant, and (f) 0.5 parts by weight to 5 parts by weight of a plasticizer. Thereby, the present invention provides a polyvinyl chloride-based fiber that has an excellent touch feeling as a fiber for hair, excellent transparency and a vivid color tone, and can be obtained by stable melt spinning with less occurrence of filament breakage.

Abstract: The polyvinyl chloride-based fiber of the present invention is a polyvinyl chloride-based fiber formed of a vinyl chloride-based resin composition that is obtained by blending, with respect to 100 parts by weight of a mixture (a) containing 95 wt % to 50 wt % of a vinyl chloride-based resin and 5 wt % to 50 wt % of a chlorinated vinyl chloride resin, 0.5 parts by weight to 3 parts by weight of a hydrotalcite-based thermostabilizer (b), 0.5 parts by weight to 2 parts by weight of a metallic soap-based thermostabilizer (c), and 0.5 parts by weight to 1.2 parts by weight of ?-diketone as a stabilizing aid (d). This polyvinyl chloride-based fiber has excellent spinnability, excellent transparency, small initial coloration and excellent colorability, and thus has a high commercial value as artificial hair for hair adornment, and can be used widely for practical goods and fashion purposes.

Abstract: An image pickup apparatus capable of distributing a picked up image through a network is provided. The image pickup apparatus includes an image pickup unit configured to pick up an image of a predetermined monitoring area and output an image signal thereof; a plurality of encoding units configured to simultaneously convert the image signal into video data of different encoding methods; a moving-object detecting unit configured to detect a moving object entered the monitoring area based on the image signal; an unmoving-object detecting unit configured to detect an unmoving object in the monitoring area based on the image signal; and a transmission control unit configured to control distribution of the video data to the network based on a detection result generated by the moving-object detecting unit and the unmoving-object detecting unit.

Abstract: There is provided a method of detecting a block sync signal in which a sync signal and code sequence can be distinguished from each other to recognize the head of a block composed of a plurality of code words at the time of data reading or reception. A sync word detector (10) is supplied with a window signal Sync_window generated based on a parity OK signal supplied from a parity check circuit (12) and indicating a period between the sync word included in signal read from the medium (1) and the ID information, and detects the sync word as to a bit string detected by a PRML Viterbi detector (6) with the use of the Sync_window signal.

Abstract: There is provided a method of detecting a block sync signal in which a sync signal and code sequence can be distinguished from each other to recognize the head of a block composed of a plurality of code words at the time of data reading or reception. A sync word detector (10) is supplied with a window signal Sync_window generated based on a parity OK signal supplied from a parity check circuit (12) and indicating a period between the sync word included in signal read from the medium (1) and the ID information, and detects the sync word as to a bit string detected by a PRML Viterbi detector (6) with the use of the Sync_window signal.

Abstract: An SRAM according to the present invention includes a voltage-down circuit and an internal circuit. The voltage-down circuit includes three resistors, two PMOS transistors and an NMOS transistor. One PMOS transistor directly applies an external power supply voltage to the internal circuit. The NMOS transistor applies a voltage obtained by reducing the external power supply voltage by a threshold voltage thereof to the internal circuit. The value of a predetermined voltage as a condition for switching such application of the voltage by the PMOS transistor and application Of the voltage by the NMOS transistor is determined by the resistance ratio of the two resistors. Each of the three resistors is formed by a plurality of resistance elements of one kind. Thus, even if the process parameter varies, the ratio of the resistance values of the two resistors which determines the switching point can be kept constant, thereby preventing variation in switching point.