Abstract:
A commodity promotion system includes detection unit (300) including a showcase where an RF tag is disposed between a reader antenna and a target article placement region; and an RFID reader, output unit (400) that presents a customer with information, commodity presence/absence determination unit (201) that determines presence or absence of the target article on the basis of signal strength information of the RF tag, commodity information storage unit (203) that stores commodity information list in which the tag information of the RF tag, commodity presence/absence information indicating presence or absence of the target article, output unit ID information of the output unit (400), and output information indicating information to be presented are associated with one another, and commodity pickup determination unit (204) that detects that the target article has changed from a presence state to an absence state, on the basis of a determination result of the presence or absence of the target article and the commodity presence/absence information in the commodity information list and outputs the output information associated with the tag information to the output unit (400).
Abstract:
PROBLEM TO BE SOLVED: To provide an address comparing circuit in which switching of an output of a comparing signal in a write-cycle is suppressed and a needless charging/discharging current of comparing signal line can be reduced. SOLUTION: A master latch circuit 12 and a slave latch circuit 21 are register for write-only and the master latch circuit 12 and slave latch circuits 21, 22 are controlled by WCLK generated in a write-cycle. The slave latch circuit 22 is controlled by RCLK generated in a read-cycle. A slave latch circuit 23 is a latch circuit provided for comparing addresses. A master latch circuit 11 and the slave latch circuit 23 are controlled by CLK generated in both cycles of a write-cycle and a read-cycle. An address comparing circuit 1 is connected to a contact point W1 of a write-register and a contact point N1 of the slave latch circuit 23 provided for comparing addresses as comparing points, and a read-out control signal RE is inputted.
Abstract:
PROBLEM TO BE SOLVED: To reduce the electric current flowing to an input protective element even when an undershooting waveform or overshooting waveform is inputted by forming a deep P- or N-well area in an n- or p-type semiconductor substrate and setting the well area in an electrically floating state. SOLUTION: An input protective element 1 has a p-type semiconductor substrate 2, a P-well area 4 formed on the surface of the substrate 2, p- and n-type contact areas 5 and 6 formed in the area 4, and a deep N-well area 3 which surrounds the area 4 and is maintained in an electrically floating state.
Abstract:
PROBLEM TO BE SOLVED: To provide a circuit substrate capable of suppressing noise without mounting a component on a substrate surface.SOLUTION: In a circuit substrate 11, signal wiring 12 is disposed on a first wiring layer 1, a ground plane is disposed on a second wiring layer 2, and a metal plate (resonance plate) 13 is disposed on a third wiring layer 3. A slit 17 is provided on the second wiring layer 2. An end of one ground plane 14' divided by the slit 17 is connected to one end of the metal plate 13 through a via 16. The other end of the metal plate 13 is connected (short-circuited) to a ground plane 14 through a via 15. By the above structure, a parallel plate transmission path is configured by the metal plate 13 and the ground plane 14. By the slit 17 acting as an input portion of the parallel plate transmission path, with the other end terminated by a short circuit, an input impedance looked from the slit 17 toward the short-circuit end side has an exceedingly large value at a frequency in which the length d of the metal plate 13 is λ/4. By the above circuit substrate structure, a noise having a specific frequency is suppressed.
Abstract:
PROBLEM TO BE SOLVED: To prevent the reduction in inductance and self resonance frequency of an inductor in a circuit board provided with the inductor. SOLUTION: The circuit board 100 is provided with an inductor 105 formed on an insulation body and a counter electrode (a ground electrode) 106 formed facing the inductor 105. An opening 107 from which the electrode is extracted is provided in the counter electrode 106 under the inductor 105. Thus, the generation of an eddy current in the counter electrode is controlled to prevent the reduction of inductance, and at the same time a parasitic capacity between the inductor and the counter electrode is prevented from being generated so as to prevent the reduction of self resonant frequency of the inductor. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To provide an electromagnetic wave propagation sheet which does not leak electromagnetic waves, is not influenced by a standing wave, and can transmit power with high efficiency.SOLUTION: The electromagnetic wave propagation sheet consists of two plate conductors 130 arranged in parallel with each other while sandwiching an insulator 13a, and has such a structure that the side face of the insulator 13a is entirely sealed electrically by a metal 14 connecting the two plate conductors 130 electrically. Furthermore, on the surface of at least one of the two plate conductors 130, e.g., the first plate conductor 131 on the upper surface side, a plurality of resonators 12, which do not radiate electromagnetic waves and capable of proximity coupling, are arranged as non-radiation resonators one-dimensionally or two-dimensionally at a prescribed interval (equal interval or an interval set appropriately for each resonator 12).
Abstract:
PROBLEM TO BE SOLVED: To enable efficient use of injected energy by suppressing leakage of an electromagnetic wave from an end portion of a sheet-like communication medium.SOLUTION: A sheet-like communication medium 100 includes: a first sheet conductor 106 constituting a lower electrode; a first dielectric layer 105 laminated on the first sheet conductor; a mesh-like second sheet conductor 104 laminated on the first dielectric layer; a second dielectric layer 103 laminated on the second sheet conductor; and a reflection wall 101 covering an end portion of the second dielectric layer. The reflection wall 101 is configured to reflect an electromagnetic wave radiated from the end portion of the second sheet conductor to make the electromagnetic wave incident to the second dielectric layer.
Abstract:
PROBLEM TO BE SOLVED: To provide a device for magnetic near-field measurement for specifying a noise current which is a generation source of an unnecessary electromagnetic wave radiated from an electronic apparatus. SOLUTION: A means for synthesizing magnetic field distribution chart extracts a part where a maximal value of magnetic field intensity exists, based on an intensity distribution of horizontal components and vertical components of a near magnetic field of an inputted measuring object, and generates a synthesized distribution chart. An array code extraction means scans the synthesized distribution chart in the longitudinal direction and in the lateral direction, and extracts an array code showing a state where a domain on which the maximal value of the intensity of horizontal components and vertical components of the magnetic field exists is arrayed. An operation means compares the intensity of each magnetic field of the plurality of vertical components which are elements of the array code with respect to a specific array code, and adds the comparison results to the array code, to thereby generate an array code for retrieval. A retrieval means retrieves a storage device 21 based on the array code for retrieval, and specifies a current pattern in the synthesized distribution chart. COPYRIGHT: (C)2011,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To control noise current by being provided above a first power supply layer or a second power supply layer of a substrate.SOLUTION: A noise suppression structure includes at least two metal surfaces 111 and 113 provided separately from a first power supply layer or a second power supply layer. One end of the metal surface 111 is connected to the first power supply layer or the second power supply layer, and in addition, the metal surfaces 111 and 113 form a capacitance.
Abstract:
PROBLEM TO BE SOLVED: To provide a printed wiring board in which the permeability of an underfill agent to the whole face of an electronic component is made sufficient at permeating the underfill agent from an outer shape position of the electronic component. SOLUTION: The electronic component where a plurality of bumps (terminal electrodes) 4 are arranged on a board body 1 in a matrix shape is mounted to the printed wiring board. In the printed wiring board, a terminal connection part of the electronic component is filled with the underfill agent, and a solder resist opening groove 12 is formed from one end of the outer shape position 13 of the electronic component to the other end following a plurality of routes. COPYRIGHT: (C)2010,JPO&INPIT