Abstract:
PROBLEM TO BE SOLVED: To acquire a hollow separation groove of a required dimension, particularly the hollow separation groove having large width with a large air capacity. SOLUTION: A method of manufacturing an integrate circuit is provided, including a preparation of a hollow separation groove in a substrate and generation of an active component in and on an active region of the substrate located between grooves. The preparation of the hollow separation groove includes an initial processing stage performed before the generation of the active component and after the generation of the active component. The initial stage includes a formation of grooves in the substrate and a filling of the grooves with a filling material, and the final processing stage includes an encapsulation of the active component, the preparation of an access passage to each of the filled hollow separation grooves through the material of the encapsulation, removing of the filling material through each of the access passages, and plugging of an opening part of each of the hollow separation grooves through corresponding access passage. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To reduce an operation time in the case of processing a large number of data. SOLUTION: This device is a digital data processor, more specifically, a device for reading the maximum value or the minimum value of data belonging to a set of 2 n codes, an order relation is established and each code has a rank R constituted of 0 to 2 n -1, respectively in the set. The device is a conversion circuit for each piece of digital data processed for generating the conversion of binary digits constituted of 2 n binary elements T[x] having X=1 to 2 n -1, T[2 n -1]T[2 n -2] T[x] to T[2] T[1] and is provided with the one in which T(x)=0 when X is absolutely larger than R and T(x)=1 when X is smaller than or equal to R here. The circuit for executing digital processing receives the result of this conversion. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract translation:要解决的问题:在处理大量数据的情况下减少操作时间。 解决方案:该设备是数字数据处理器,更具体地,用于读取属于一组2 n SP>代码的数据的最大值或最小值的设备,建立了顺序关系 并且每个代码分别具有由0到2 n SP> -1构成的秩R。 该装置是用于产生由具有X = 1至2 n SP的2 n SP>个二进制元素T [x]构成的二进制数字的转换的每个数字数据的转换电路。 > -1,T [2 n SP> -1] T [2 n SP> -2] T [x]到T [2] T [1] 当X小于或等于R时,当X绝对大于R且T(x)= 1时,T(x)= 0。 用于执行数字处理的电路接收该转换的结果。 版权所有(C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide a collision prevention method for identifying and selecting a plurality of non-contact electronic modules by means of a simple structure and to provide the non-contact electronic module. SOLUTION: In advance of communication between a terminal 19 and a plurality of non-contact electronic modules 10, the respective modules 10 generate random identification numbers ID. During a time slot varied according to the identification numbers, the module 10 responds to a general or auxiliary identification request, and the module 10, which is not selected on receipt of the auxiliary identification request PCALL16, generates new random identification number. While the time slot is varied according to this identification number, a time slot of the unselected module 10 complying with the auxiliary identification request is prevented from being equalized to that of the module 10 complying with the previous auxiliary identification request. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a method for controlling the transmission of a super-wideband position modulation pulse signal with high precision. SOLUTION: In this method, a pulse signal is constituted so as to be involved in a time window. A control signal which contains an identification showing the position of a pulse in a corresponding window, in connection with each pulse is provided for a pulse generator. Further, continuous groups of N bits which coordinately define a digital sign showing the position of a pulse inside the window are transmitted by transmission frequency (Fe) which is greater than a pulse repetition frequency, regarding the respective time windows. The digital position sign is converted to the control signal which is spread in time along the length of the window and contains the position identification, at a moment corresponding to the digital position sign. As a result, the pulse can be positioned inside the window with a time precision equal to 1/N.Fe. COPYRIGHT: (C)2004,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a memory device which overcomes the data holding problem caused by the thinness of its grid dielectric present in the interface between its STI-type isolation region and its grid material. SOLUTION: The semiconductor memory device comprises a non-volatile programmable and electrically erasable memory cell having a single layer of grid material. Also, the memory cell comprises a floating grid transistor and a control grid within an active semiconductor area which is formed in a region of a substrate and is delimited by an isolation region. The single layer of grid material wherein the floating grid is formed extends integrally above the active semiconductor area without overlapping part of the isolation region. The floating grid transistor is electrically isolated from the control grid by PN junctions that are inversely polarized. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a method and a device for secured identification by using biometric data and an integrated circuit chip when using an arbitrary function with biometric data. SOLUTION: The digital biometric data obtained by a sensor 1 is combined with identification data (CHIPID) of the integrated circuit chip contained in a device common to the sensor 1. The chip identification data (CHIPID) is obtained from a physical parameter network 17 and is formed to perform secured authentication. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide a method for generating secret quantities by an integrated circuit according to the destination of these secret quantities. SOLUTION: In a method and a circuit for generating several secret quantities by the integrated circuit according to the destination of these secret quantities, a first digital ward forming a single identifier of the integrated circuit chip and coming from a physical parameter network is taken into account and this identifier is individualized according to an application. COPYRIGHT: (C)2003,JPO
Abstract:
PROBLEM TO BE SOLVED: To provide an amplifier device having a gain switching and a radio- frequency receiver integrating thereinto, such an amplifier device where its output dynamic range is optimized in its 'low-gain' mode, while maintaining high gain in its 'high-gain' mode. SOLUTION: The amplifier device with a gain switching comprises an amplification means (Q1); a configurable load circuit (M1, M2) including an inductive element (L2) and capable of exhibiting two different configurations, having two different impedance values respectively; and a controllable switching means (Q2, Q3) connected between the amplification means and the load circuit, in order to select one or other of the two configurations of the load circuit. The load circuit includes two insulated-gate field-effect transistors (M1, M2), connected in series and operating in a triode mode and includes the inductive element, connected in parallel with the pair of load transistors between a power- supply terminal and the switching means.
Abstract:
PROBLEM TO BE SOLVED: To provide a method and a device with extremely high speed address jump and to sequentially read contents from its memory. SOLUTION: This invention is of the method for sequentially reading the contents from the memory (10) by using an increment type address counter (12). To jump an address, (a) an address jump signal is detected, (b) the increment type address counter (12) is made incremental, (c) the contents of the memory (10) are read by the address made incremental, (d) the contents read by the address made incremental are written in the increment type address counter (12) and (e) the contents of the memory (10) are read by the address included in the increment type address counter (12).
Abstract:
PROBLEM TO BE SOLVED: To provide the peripheral structure of a power component resisting a high voltage. SOLUTION: A power component formed in an N-type silicon substrate, the lower and upper surfaces of which respectively include a first and a second P-type region, that does not extend to the component periphery, the high voltage being capable of existing between the first and second regions and having to withstand the junctions between the first and second regions and the substrate. A deep insulating region 31 that does not join the first region 3 is provided at the lower periphery of the component. The lower surface of the substrate between the deep insulating region and the first region is coated with an insulating-layer. The height of the deep insulating region is greater than the upward extension of soldering 22, formed during the soldering of the lower surface on a heat sink.