Abstract: A displaying base plate and a manufacturing method thereof, and a displaying device. The displaying base plate includes a substrate, and a first electrode layer disposed on one side of the substrate, wherein the first electrode layer includes a first electrode pattern; a first planarization layer disposed on one side of the first electrode layer that is away from the substrate, wherein the first planarization layer is provided with a through hole, and the through hole penetrates the first planarization layer, to expose the first electrode pattern; and a second electrode layer, a second planarization layer and a third electrode layer that are disposed in stack on one side of the first planarization layer that is away from the substrate, wherein the second electrode layer is disposed closer to the substrate, the second electrode layer is connected to the first electrode pattern and the third electrode layer.

Abstract: A touch panel including an operation surface on which touch operation is to be performed; a voice coil actuator to apply vibrating force to the operation surface in response to the touch operation; and a main body chassis supporting the touch panel via a spring are included, and the voice coil actuator includes: a magnetic circuit unit provided on the main body chassis and including a magnetic gap; a coil unit provided on a rear surface of the touch panel and including a coil provided in the magnetic gap; and a fit unit to align a center position of the coil unit and a center position of the magnetic circuit unit and with each other by fitting the coil unit and the magnetic circuit unit and to each other when the coil unit is pushed toward the magnetic circuit unit.

Abstract: A movement amount calculation unit for integrating, over a movement amount collection time period, a movement amount of a coil unit when the coil unit moves, the movement amount being calculated on the basis of an electromotive force occurring in the coil unit as the coil unit moves, to thereby calculate a movement amount for determination of the coil unit, and a pushing determination unit for determining the existence or nonexistence of a pushing operation by using the movement amount for determination calculated by the movement amount calculation unit are included.

Abstract: A touch panel including an operation surface on which touch operation is to be performed; a voice coil actuator to apply vibrating force to the operation surface in response to the touch operation; and a main body chassis supporting the touch panel via a spring are included, and the voice coil actuator includes: a magnetic circuit unit provided on the main body chassis and including a magnetic gap; a coil unit provided on a rear surface of the touch panel and including a coil provided in the magnetic gap; and a fit unit to align a center position of the coil unit and a center position of the magnetic circuit unit and with each other by fitting the coil unit and the magnetic circuit unit and to each other when the coil unit is pushed toward the magnetic circuit unit.

Abstract: An electronic apparatus includes: a touch panel including an operation surface on which touch operation is to be performed; and a voice coil actuator for applying vibrating force to the operation surface in response to the touch operation, in which the voice coil actuator includes: a magnetic circuit unit including an outer peripheral surface of a yoke to be abutted by a guide pin inserted from the rear side with respect to the touch panel so that the guide pin is along the outer peripheral surface, and a magnetic gap formed in an annular shape on the radially inner side with respect to the outer peripheral surface; and a coil unit provided on the rear surface of the touch panel so that a coil having a cylindrical shape is provided in the magnetic gap, and having an outer peripheral shape matching the end shape of the guide pin.

Abstract: An oscillation maintenance circuit with comparator-based pulse generation is provided. By sampling an RF signal and controlling a pulse generation circuit to generate a pulse signal of the same frequency as the RF signal, a switch unit is controlled to be ON/OFF at a same frequency as the RF signal, achieving synchronization between change of the current injection and the RF signal. Thus, the oscillation frequency is not affected by current injection, ensuring the FSK communication performance. At the same time, two comparators are respectively compared with two reference voltage levels to obtain an output pulse signal, and the reference voltage levels can be adjusted according to practical requirements, so that the switch-on point of time and current injection time duration are adjustable, maximizing the efficiency of current injection, resulting in simple circuit structure, low power consumption, and increased communication distance of an HDX passive RFID transponder.

Abstract: A half-duplex RFID oscillation maintenance circuit with trigger-based pulse generation is provided, including: a resonance inductor and a resonance capacitor forming an L-C resonance circuit coupled to an external radio frequency field to generate alternating current for a rectifier circuit, which is connected to an energy-storage capacitor. A first antenna end is connected to a trigger circuit through a switch unit and a resistor connected in series; and an output end of the trigger circuit is connected to a control end of the switch unit. The trigger circuit is configured to sample an oscillation signal at the first antenna end to generate a rectangular wave signal, whose pulse width can be self-adaptively adjusted, to control OFF/ON of the switch unit and, when the switch unit is ON, to form a current injection loop from the energy-storage capacitor to the L-C resonance circuit.

Abstract: Notched portions and positioning projecting portions are elastically engaged with each other to hold a fan unit at a fixing position in a housing, in a state in which the fan unit is placed at the fixing position.

Abstract: A half-duplex RFID oscillation maintenance circuit with trigger-based pulse generation is provided, including: a resonance inductor and a resonance capacitor forming an L-C resonance circuit coupled to an external radio frequency field to generate alternating current for a rectifier circuit, which is connected to an energy-storage capacitor. A first antenna end is connected to a trigger circuit through a switch unit and a resistor connected in series; and an output end of the trigger circuit is connected to a control end of the switch unit. The trigger circuit is configured to sample an oscillation signal at the first antenna end to generate a rectangular wave signal, whose pulse width can be self-adaptively adjusted, to control OFF/ON of the switch unit and, when the switch unit is ON, to form a current injection loop from the energy-storage capacitor to the L-C resonance circuit.

Abstract: An oscillation maintenance circuit with comparator-based pulse generation is provided. By sampling an RF signal and controlling a pulse generation circuit to generate a pulse signal of the same frequency as the RF signal, a switch unit is controlled to be ON/OFF at a same frequency as the RF signal, achieving synchronization between change of the current injection and the RF signal. Thus, the oscillation frequency is not affected by current injection, ensuring the FSK communication performance. At the same time, two comparators are respectively compared with two reference voltage levels to obtain an output pulse signal, and the reference voltage levels can be adjusted according to practical requirements, so that the switch-on point of time and current injection time duration are adjustable, maximizing the efficiency of current injection, resulting in simple circuit structure, low power consumption, and increased communication distance of an HDX passive RFID transponder.

Abstract: A bent part (42) extends from an edge part of a wall part (41) being parallel to the direction of insertion of a rail part (90a). The bent part (42) has an arm part (42a) extending in a direction crossing the direction of insertion, and a contact surface part (42b) extending from the arm part (42a) in a direction crossing the direction of the arm part (42a). An opening of a slit (43) formed between the wall part (41) and the bent part (42) faces an opening of a cutout (61) into which the rail part (91a) is to be inserted. The contact surface part (42b) is sloped such that the rail part (90a) is slidingly guided into the slit (43).

Abstract: A time domain integrated temperature sensor described by the present invention adopts a shaped clock signal to control the charging time of capacitors, so that the capacitors generate charging time delay signals related to the cycle of an input clock, and a pulse signal related to pulse width, temperature and the cycle of the input clock is generated through logical XOR (Exclusive OR) operation on a time delay signal generated when the capacitors are charged by one way of PTAT (Proportional To Absolute Temperature) current in an above control manner and a time delay signal generated when the capacitors are charged by one way of CTAT (Complementary To Absolute Temperature) current in the same manner; then, the same input clock signal is adopted for quantifying the pulse width of the pulse signal, the relevance of the obtained quantization result and the cycle of the input clock is completely offset, namely, an output value of the temperature sensor is unrelated to the input clock signal, thereby solving the pr

Abstract: The present invention discloses a radio-frequency (RF) front-end circuit combining functions of rectification and load modulation and a passive RF tag including thereof. The RF front-end circuit includes a first modulation unit arranged at an output of a rectifier circuit and a second modulation unit arranged between a first and a second end of an antenna coil. The first modulation unit and the second modulation unit are configured to change respectively the voltage at the output of the rectifier circuit and voltage at the two ends of the antenna coil by modulating under a strong field environment or a weak field environment, thus adjusting modulation depth of the passive RF tag. The RF front-end circuit also includes a unidirectional conducting unit to prevent loss of charges stored in a capacitor. The present invention solves existing contradiction of design specification requirements between cost and sensitivity of a passive RF tag.

Abstract: A circuit board (7) is fixed with a screw (8), using a component attachment part (21) cut and raised from a bottom plate part (20) of a bottom chassis (2) toward the inner side of a casing (1). An opening part (22) formed by cutting and raising of the component attachment part (21) is closed by attachment of a rear chassis (5), and the bottom chassis (2) and the rear chassis (5) come into contact with each other via an elastic piece (52).

Abstract: A circuit board (7) is fixed with a screw (8), using a component attachment part (21) cut and raised from a bottom plate part (20) of a bottom chassis (2) toward the inner side of a casing (1). An opening part (22) formed by cutting and raising of the component attachment part (21) is closed by attachment of a rear chassis (5), and the bottom chassis (2) and the rear chassis (5) come into contact with each other via an elastic piece (52).

Abstract: A bent part (42) extends from an edge part of a wall part (41) being parallel to the direction of insertion of a rail part (90a). The bent part (42) has an arm part (42a) extending in a direction crossing the direction of insertion, and a contact surface part (42b) extending from the arm part (42a) in a direction crossing the direction of the arm part (42a). An opening of a slit (43) formed between the wall part (41) and the bent part (42) faces an opening of a cutout (61) into which the rail part (91a) is to be inserted. The contact surface part (42b) is sloped such that the rail part (90a) is slidingly guided into the slit (43).

Abstract: Notched portions and positioning projecting portions are elastically engaged with each other to hold a fan unit at a fixing position in a housing, in a state in which the fan unit is placed at the fixing position.

Abstract: The present invention discloses a radio-frequency (RF) front-end circuit combining functions of rectification and load modulation and a passive RF tag including thereof. The RF front-end circuit includes a first modulation unit arranged at an output of a rectifier circuit and a second modulation unit arranged between a first and a second end of an antenna coil. The first modulation unit and the second modulation unit are configured to change respectively the voltage at the output of the rectifier circuit and voltage at the two ends of the antenna coil by modulating under a strong field environment or a weak field environment, thus adjusting modulation depth of the passive RF tag. The RF front-end circuit also includes a unidirectional conducting unit to prevent loss of charges stored in a capacitor. The present invention solves existing contradiction of design specification requirements between cost and sensitivity of a passive RF tag.

Abstract: The present invention relates to the field of radio frequency identification, in particular to a temperature measurement and calibration circuit and a passive radio frequency identification tag. Meanwhile, the present invention further relates to a method for performing temperature measurement by using the tag. The temperature measurement and calibration circuit of the tag generates an upper reference voltage value limit and a lower reference voltage value limit, which do not change with temperature, then calibrates the upper reference voltage value limit and the lower reference voltage value limit to a uniform upper voltage value limit and a uniform lower voltage value limit, and eliminates the problem of different reference voltages of tags due to the power supply voltage fluctuation and process deviation. Meanwhile, a temperature measurement voltage generator circuit of the tag generates a calibration voltage value under a uniform calibration temperature.

Abstract: The present invention relates to the technical field of radio frequency identification, in particular to a rectifier and limiter circuit having a plurality of time constants and a passive radio frequency tag containing this rectifier and limiter circuit. By applying analog control signals with different time constants to control terminals of two discharge paths of the rectifier and limiter circuit, respectively, i.e., adjusting the voltage amplitude at different switching speeds, switching the two discharge paths from a completely open state to a completely closed state is realized. Discharging is performed properly according to the amount of charge at antenna terminals and the level of energy of the tag, thus to improve the demodulation capacity of the tag and increase the read-write distance of the tag.