Abstract:
PROBLEM TO BE SOLVED: To provide a method for implementing a radio communication interface for a communication device to which an identification address for communication is assigned in a method to provide and an apparatus for managing and storing non-volatile data related to the communication device. SOLUTION: The radio communication interface 2 is provided with a radio frequency circuit 4 and a memory 32 for storing data related to the operation testing stage for the radio frequency circuit. The memory 32 is a hardware which has become independent of the radio frequency circuit 4 of the communication interface 2. Further, the identification address BD_ADD is written in the memory 32. This radio communication interface can be utilized, e.g., in a radio network and a pico-network, such as "Bluetooth (R)" and "Zig Bee". COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a modem for a transmission system for enabling a single modem to effectively utilize a number of DSL standards with low complexity. SOLUTION: A digital subscriber line transmission using QAM modulation on several equally spaced discrete tones, uses, at a high transmission rate, N=2048/p or 4096/p tones spaced by 4.3125p kHz, where (p) is a power of 2. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a system for detecting time exceeding conditions of at least one application being executed by a processor without applying an excess load to the processor. SOLUTION: The system is provided with a register having a means for storing time conditions, in which the conditions are sorted in order of increased deadline and for storing the condition closest to the current date and a comparator which compares the deadline contained in the register with the current date of the system. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an electronic circuit provided with a reliable time measurement means that is free from invasion acts. SOLUTION: The electronic circuit is provided with a first counter, which is rated by a clock signal supplied by an oscillator in the outside of the circuit to have a first period, and a second counter, which is rated by an oscillator in the inside of the circuit to have a second period. The second counter is reset every time the contents of the first counter is a multiple of a first specified value. The electronic circuit has a means, which activates an alarm signal when the second counter reaches a second specified value, that is the product of the second specified value and the second period is greater than that of the first specified value and the first period. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a decoding principle capable of decreasing various drawbacks and realizing all or some of the various purposes with respect to a video driver circuit. SOLUTION: A method of decoding one or more audio data streams and one or more video data streams which are obtained from respective data sources has a step of loading parts of the audio data streams and parts of video data streams into a set of buffer memories; a step of supplying the audio data and the video data to the input terminal of at least one audio decoder and the input terminal of at least one video decoder respectively, from a buffer memory; and a step of decoding the video data and the audio data respectively by support of the audio decoder and the video decoder. The first step is conducted by a management module in conformity with a pull mode. Alternatively or further, the second step is conducted by the management module in conformity with a push mode. The management module is controlled by the video decoder. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a method and a circuit for demodulating a signal transmitted by an electromagnetic transponder. SOLUTION: The electromagnetic transponder reader has a sensor on an oscillation circuit of a parameter which is a function of a load of the transponder, a phase demodulator and an amplitude demodulator which are parallel functionally at least for receiving a signal from the sensor, an adder for the results of the demodulators, and a delay element serially connected with one demodulator for compensating a propagation time difference between the both. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a method for measuring a phase of a substantially sinusoidal signal which can be implemented in the form of a simple digital circuit of a small surface area and which can use a sampling frequency only slightly greater than a maximum signal frequency. SOLUTION: The present invention provides the method for measuring with a maximum error E the phase of the substantially sinusoidal signal of an angular frequency ω=2π/T, sampled with a sampling period T/r, wherein the phase is calculated as time at which a straight line crossing two consecutive samples located on either side of a median value of the signal reaches the median value, including a step of selecting number r from a range included between a value r0 and a value equal to from two to three times value r0 fulfilling the following relation (equation 1), when round (x) is an integer closest to a real number x and G is equal to 2 i G 1 , where i is the number of bits on which the samples are coded, and where G 1 is a real term of correction of amplitude of the sampled signal. COPYRIGHT: (C)2004,JPO
Abstract translation:要解决的问题:提供一种用于测量基本上正弦信号的相位的方法,其可以以小的表面积的简单数字电路的形式实现,并且可以使用仅稍大于 最大信号频率。 解决方案:本发明提供了以采样周期T / r采样的角频率ω=2π/ T的基本正弦信号的相位以最大误差E进行测量的方法,其中相位被计算为 跨越位于信号的中值的任一侧的两个连续样本的直线的直线达到中值,包括从值r0和等于2到3的值之间的范围中选择数r的步骤 时间值r0满足以下关系(等式1),当round(x)是最接近实数x的整数,G等于2时,等于2 i SP> G 1 SB> 其中i是样本被编码的位数,并且其中G 1 SB>是采样信号的幅度校正的实际项。 版权所有(C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To disclose a data transmission method for at least three nodes between orthogonal frequency-division multiplexing networks. SOLUTION: At least one transmission frequency and at least one reception frequency are assigned to each node, different transmission and reception frequencies are assigned to each node, transmission data symbols of the same length are generated independently of the nodes, and a cyclic prefix and a cyclic suffix, resulting from duplicating samples of a predetermined number from an end point and a start point of each transmission symbol are attached to each transmission symbol. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a method for transmitting a digital data message through an output terminal 22 of a monitor circuit 18 integrated by a microprocessor 12, wherein the message represents a determined event that occurs when the microprocessor executes an instruction and to provide a device for transmitting the digital data message. SOLUTION: The method has a step of transmitting a correlation message including an identifier of a specific digital data message and counters, the number of which is the number of instructions to be executed by the microprocessor 12 between an instruction related to the transmission of the specific digital data message and an instruction related to the transmission of the preceding digital data message before or after transmitting at least one specific digital data message related to a specific event. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To allow manufacturing of a hybrid substrate, especially manufacturing of C-MOS structure to be simplified. SOLUTION: The method related to this invention forms primary and secondary active regions (1a, 1b, 1c and 14a, 14b) on a front face of a support material, wherein the active regions are respectively formed with primary and secondary single-crystal semiconductor materials having different, but preferably the same crystal structures. Further, the method gives a benefit that the front sides of the primary and secondary active regions (1a, 1b, 1c and 14a, 14b) are in the same plane. Especially, such a method forms the secondary active regions (14a and 14b) through a step to crystallize the secondary single-crystal semiconductor material from a pattern composed of the secondary polycrystal and/or amorphous semiconductor materials as well as an interface region between the pattern and the preselected primary active regions (1a and 1b). The support material is formed of lamination of a substrate (4) and an electric insulation layer (3), wherein the front side of the electric insulation layer (3) corresponds to the front side of the support material. COPYRIGHT: (C)2007,JPO&INPIT