Abstract: A display wiring line provided on a resin substrate layer, a flattening film covering the display wiring line, and an organic EL element provided on the flattening film are provided. The display wiring line includes first to third conductive layers layered sequentially from the resin substrate layer side. In the display wiring line, the second conductive layer is formed with a width smaller than a width of each of the first conductive layer and the third conductive layer, and a portion of a perimeter edge surface corresponding to the second conductive layer includes a recessed portion, and a resin cover covering a perimeter edge surface of the second conductive layer is provided in the recessed portion in a portion of the display wiring line exposed from the flattening film.

Abstract: A terminal apparatus receives one transport block by using a PDSCH, receives RRC information indicating a maximum number X of CBGs, determines transmit power of a PUCCH, and transmits UCI at least including a HARQ-ACK corresponding to the one transport block on the PUCCH. The one transport block includes NCB code blocks. The HARQ-ACK includes the X HARQ-ACKs bits. In a case that a number of bits of the UCI does not exceed a prescribed number of bits, the transmit power of the PUCCH including the UCI is determined at least based on a smaller value of the X and the NCB. In a case that the number of bits of the UCI exceeds the prescribed number of bits, the transmit power of the PUCCH is determined at least based on the number of bits of the UCI.

Abstract: A frame region includes a first routed wire extending from one of a plurality of scan signal lines, one of a plurality of light-emission control lines, or one of a plurality of data signal lines. The first routed wire is electrically connected to drive circuits. The first routed wire is included in a first metal layer. A first conductive film is included in a second metal layer. The first routed wire and the first conductive film overlap each other via an inorganic insulating film.

Abstract: To provide a control apparatus or a terminal apparatus included in a communication system with a preferable measure for session management, a preferable communication control measure for establishing a session corresponding to a session continuation mode, or a preferable communication control measure for session control. With this configuration, the control apparatus or the terminal apparatus included in the communication system is provided with a session anchor relocation procedure corresponding to a mode relating to continuation of a preferable session, a communication control measure, and a management measure.

Abstract: Provided is a communication unit configured to allow a function for CIoT to be used even in a 5GS that supports a network-initiated configuration update procedure and a plurality of types of session and service continuities. Further provided is a communication unit configured to appropriately manage, by a user equipment, connection established between the user equipment and a network even in a case that a network-initiated change of a state of the user equipment has been performed. Thereby, the communication unit for implementing the function for CIoT in the 5GS and the communication unit for implementing a network-initiated procedure of changing the state of the user equipment are provided.

Abstract: Provided is a liquid crystal display device in which it is unlikely that flicker would occur even if a polarity of a data voltage is inverted at every frame when a single color is displayed. The liquid crystal display device includes an active matrix substrate and a counter substrate. The active matrix substrate includes a plurality of pixels provided with pixel electrodes 16 arranged in matrix, and source lines SL to each of which a data voltage having either a positive polarity or a negative polarity is applied. The counter substrate includes color filters of a plurality of colors. The source lines are arranged in such a manner that two source lines (SLn, SLn+1/SLn+2, SLn+3) are provided with respect to each of pixel columns L1 and L2 each of which includes three columns of pixels. The polarity of the data voltage applied to the source line is inverted at every frame.

Abstract: A residual layer removal method of removing a residual layer of an adhesive resin attached to a substrate used in a display module, the residual layer removal method includes: an arranging step of arranging a metal porous material on a surface of the residual layer; a heating step of heating and softening the residual layer; a pressing step of pressing the metal porous material arranged on the surface of the residual layer by the arranging step to the residual layer softened. by the heating step to press-fit at least parts of the residual layer into open holes of the metal porous material; and a peeling step of peeling off the metal porous material in which the residual layer is press-fitted into the open holes from the substrate.

Abstract: A terminal apparatus or a device in a core network exchanges capability information for each function in a registration procedure or a PDU session establishment procedure, and in user data communication additional information is added into an uplink packet to implement terminal apparatus-initiated RQoS control, and additional information is added into a downlink packet to implement network device-initiated RQoS control. A dedicated control message and information for an authentication and/or authorization function by a DN are defined to implement the authentication and/or authorization function by the DN. Furthermore, the terminal apparatus and the device in the core network have a timer or a control process for each network slice to implement a management process such as congestion management for each network slice.

Abstract: The method for producing an optical member of the present invention includes: a step (1) of applying a lower layer resin and an upper layer resin; a step (2) of pressing a die against the lower layer resin and the upper layer resin from the upper layer resin side, so as to form a resin layer including an uneven structure on a surface thereof; and a step (3) of curing the resin layer to form the polymer layer, wherein the lower layer resin contains an amide group, the lower layer resin has an amide group concentration of 1.5 mmol/g or more and less than 5 mmol/g, and the polymer layer has a minimum storage modulus E? of 1×108 Pa or higher and 1×109 Pa or lower at a bottom temperature of 110° C. or higher and 210° C. or lower.

Abstract: A detection device includes a plurality of detection units formed on a semiconductor circuit, a correction capacitive element that indicates a correction capacitance value for correcting detected capacitance values detected by the detection units, a difference acquisition circuit that acquires a difference value between each of the detected capacitance values and the correction capacitance value, and a conversion circuit that converts the difference value into a digital signal. The correction capacitive element, the difference acquisition circuit, and the conversion circuit are formed on the semiconductor circuit.

Abstract: A pair of pressure members are disposed at both ends of a pressure roller and rotatably support the pressure roller to press the pressure roller against a fixing roller including an elastic layer via a fixing belt. One of the pressure members that includes a fulcrum engaging section engaged with a rotation fulcrum at one end and is locked to a biasing member at a side opposite to the fulcrum engaging section is moved by a moving member in a direction intersecting a pressing direction of the pressure roller in a state where deformation of the elastic layer is regulated. Thus, a force acting on a fixing nip formed by the deformation of the elastic layer of the fixing roller is stabilized. As a result, the traveling performance of the fixing belt is stabilized, whereby the offset control can be performed with high accuracy.

Abstract: A power conversion apparatus includes a power conversion circuit portion which includes a plurality of semiconductor switching elements, a control signal generation portion which generates a control signal for controlling opening and closing of each of the semiconductor switching elements, a plurality of driving portions which drive the semiconductor switching elements, and a first board on which the power conversion circuit portion and the plurality of driving portions are mounted. Each of the driving portions includes a power supply portion which converts AC power-supply power input from outside the first board into DC power-supply power, and a driving signal generation portion which generates a driving signal for driving the semiconductor switching elements from the DC power-supply power in accordance with the control signal.

Abstract: The liquid crystal diffraction grating includes: paired substrates each including an electrode; a liquid crystal layer being held between the substrates; a sealant; and an alignment-controlling layer being disposed in a region surrounded by the sealant in a plan view and being in contact with the liquid crystal layer between the liquid crystal layer and each of the substrates, the alignment-controlling layer being configured to align liquid crystal molecules in a direction parallel to the substrates and containing a polymer of at least one monomer, the orientation of the liquid crystal molecules periodically rotating in at least one direction in a plan view of the liquid crystal layer in a state where the liquid crystal molecules are aligned in the direction parallel to the substrates.

Abstract: An integrated circuit sensor that enables, regardless of a type of an inspection object, the inspection object and a front surface of the integrated circuit sensor to be in reliable contact with each other in a large region is provided. A through silicon via (11) that electrically connects an inside of an integrated circuit sensor (4) and an outside of the integrated circuit sensor (4) is formed in the inside of the integrated circuit sensor (4) so as to reach a rear surface of the integrated circuit sensor (4), which faces the front surface of the integrated circuit sensor (4).

Abstract: Image display control by which effective correction is performed even for a biased change in a source potential for one frame in a liquid crystal display device is achieved. A liquid crystal display device (2) includes a correction unit that corrects a source voltage value to a pixel. The correction unit calculates a correction amount by using an integrated value of a source potential for previous one frame instead of an integrated value of the source potential for next one frame. The liquid crystal display device (2) applies the source voltage based on the correction amount to the pixel.

Abstract: To achieve an improvement in the power factor of the input into a primary converter in a case of inputting alternating-current (AC) power. A converter is provided with a control unit that performs a switching control such that power is supplied from a primary converter to a secondary converter while keeping a voltage supplied to a load constant, and also such that power is supplied from the primary converter to a tertiary converter while keeping a current supplied to a tertiary capacitor constant.

Abstract: A terminal apparatus and a base station apparatus can efficiently communicate with each other through downlink. A terminal apparatus is configured to: acquire synchronization with a cell through cell search; and receive system information associated at least with (i) an operation of NB-IoT and (ii) a raster offset. The raster offset is an offset of downlink carrier frequency from a channel raster of prescribed spacing. The downlink carrier frequency is a carrier frequency of the NB-IoT.

Abstract: An ion generator includes a high-voltage transformer having a secondary side that is not grounded; a discharge wire-pattern; an induction wire-pattern; a discharge electrode connected to a first terminal via the discharge wire-pattern, the first terminal being disposed on the secondary side of the high-voltage transformer; and an induction electrode connected to a second terminal via the induction wire-pattern, the second terminal being disposed on the secondary side of the high-voltage transformer. The first terminal has a first width. The discharge wire-pattern includes a discharge wide region having a second width greater than the first width. The discharge wide region and the induction wire-pattern at least partly overlap each other in plan view.

Abstract: Provided is a resource allocation method suitable for a downlink control channel of a narrowband MTC UE, and a base station and an MTC UE for executing the method. The method according to embodiments of the present invention includes: allocating one or more MPDCCH-PRB-sets for an MTC UE in order to transmit the MPDCCH, the numbers of PRB-pairs in the MPDCCH-PRB-sets being 2, 4, or 6; and transmitting MPDCCH allocation information to the MTC UE, the MPDCCH allocation information including information indicating the MPDCCH-PRB-sets. The allocated MPDCCH-PRB-sets may be associated with repetition levels.

Abstract: A communication system includes a base station apparatus, a mobile station apparatus, and a communication device. The base station apparatus performs communication with one or a plurality of the communication devices via the mobile station apparatus. The mobile station apparatus includes a first mobile station communicator that performs first communication with the base station apparatus, a second mobile station communicator that performs second communication with the communication device, and a mobile station controller that acquires a device type of the communication device and, on the basis of the device type thus acquired, generates request information for requesting the base station apparatus for a communication control configuration of the first communication.