Abstract: A master station device connected to a secondary station device through a fronthaul includes a first base station signal processor having a first functional split configuration relating to a plurality of base station functional units for a first service type, and a second base station signal processor having a second functional split configuration relating to the plurality of base station functional units for a second service type.

Abstract: A base station includes communication circuitry which, in operation, transmits or receives a reference signal in a plurality of bands using a part of a plurality of antennas, and control circuitry which, in operation, determines which of the plurality of bands to allocate to a terminal, based on a result of measurement using the reference signal.

Abstract: A distributed station includes receiver circuitry which, in operation, receives information regarding wireless device switching from a terminal via a first wireless device, and controller circuitry which, in operation, determines, based on the information, switching from the first wireless device to a second wireless device and bandwidth part (BWP) aggregation in the second wireless device.

Abstract: A method for producing an intermediate for thermoelectric conversion modules may avoid a supporting substrate, enabling annealing of a thermoelectric semiconductor material in a form avoiding a joint to an electrode, and enabling annealing of a thermoelectric semiconductor material at an optimum temperature. Such methods may produce an intermediate for thermoelectric conversion modules containing a P-type thermoelectric and an N-type thermoelectric element layer of a thermoelectric semiconductor composition, and include (A) forming the P-type thermoelectric element layer and the N-type thermoelectric element layer on a substrate; (B) annealing the P-type and N-type thermoelectric element layer formed in (A); (C) forming a sealant layer containing a curable resin or a cured product thereof, on the P-type and N-type thermoelectric element layer annealed in (B); and (D) peeling the P-type and the N-type thermoelectric element layer and also the sealant layer formed in (B) and (C) from the substrate.

Abstract: A chip of thermoelectric conversion material may have a concave portion and may be capable of realizing high joining properties to an electrode. Such a chip of thermoelectric conversion material may have a concave on at least one surface of the chip of thermoelectric conversion material. The shape of such chips of may be rectangular parallelepiped, cubic, and/or columnar shape.

Abstract: A control device includes reception circuitry which, in operation, receives control information regarding resources to be allocated to a plurality of distributed units, and control circuitry which, in operation, determines, based on the control information, a distributed unit to which a received signal of uplink is to be transferred among the plurality of distributed units.

Abstract: A base station determines, based on transmission quality information of a fronthaul and channel quality information of a terminal, a resource and a transmission scheme of the fronthaul assigned to the terminal, and controls, based on determined information, the transmission scheme of a signal to be transmitted to the fronthaul using the determined resource.

Abstract: A transmission device includes: a controller configured to control a transmission scheme for each of a plurality of divisions corresponding to signals which are divided and are to be transmitted to a fronthaul; and a transmitter configured to transmit the signals to the fronthaul.

Abstract: A master station device connected to a secondary station device through a fronthaul includes a first base station signal processor having a first functional split configuration relating to a plurality of base station functional units for a first service type, and a second base station signal processor having a second functional split configuration relating to the plurality of base station functional units for a second service type.

Abstract: In a base station that transmits data to a first terminal in coordination with a coordination-providing base station, and functions as a connection-making base station that instructs the coordination-providing base station on a transmission parameter that is used for coordinated communication, a reception processor receives first CSI between the connection-making base station and the first terminal from the first terminal, and, receives, from each of at least one or more second terminals other than the first terminal, second CSI between the connection-making base station and a second terminal, and third CSI between the coordination-providing base station and at least one second terminal, a CSI estimator configures the third CSI which corresponds to a terminal, to which the first CSI and the second CSI are the closest, of the at least one or more second terminals, as an estimation value of CSI between the coordination-providing base station and the first terminal.

Abstract: A base station device includes: a receiver, which, in operation, receives signals from one or more other base station devices in a system using an adjacent frequency band; a searcher, which, in operation, searches for one or more center frequencies of signals from the one or more other base station devices; a selector, which, in operation, selects a synchronization target base station device from which a respective center frequency has been acquired from among the one or more other base station devices; and a controller, which, in operation, sets an operation parameter to establish synchronization with transmission and reception timings of the synchronization target base station device.

Abstract: A non-aqueous electrolyte secondary battery is equipped with: a positive electrode provided with a positive electrode current collector and a positive electrode mixed material layer formed on the current collector; a negative electrode provided with a negative electrode current collector; and a non-aqueous electrolyte. A lithium secondary battery which is configured so that metal lithium is deposited on a negative electrode current collector during charging and the metal lithium is dissolved in a non-aqueous electrolyte during discharging. The non-aqueous electrolyte contains a lithium salt for which the anion is an oxalate complex.

Abstract: A solar cell module includes: two solar cells adjacent to each other, the two solar cells each having a first main surface and a second main surface. At least one solar cell of the two solar cells includes: a plurality of first finger electrodes disposed on the first main surface; a plurality of second finger electrodes disposed on the second main surface; and a plurality of reinforcement lines disposed on the second main surface. The plurality of reinforcement lines are disposed at positions where the plurality of reinforcement lines at least partially overlap the plurality of first finger electrodes, respectively, in a front view of the at least one solar cell, and a first pitch between the plurality of reinforcement lines is different from a second pitch between the plurality of second finger electrodes.

Abstract: A wireless communication system includes a plurality of baseband processing apparatuses each of which performs baseband signal processing and outputs a baseband signal, and a wireless apparatus which makes connections to the plurality of baseband processing apparatuses and transmits a radio frequency signal that is obtained by performing radio frequency signal processing on the baseband signal that is output from one of the plurality of baseband processing apparatuses.

Abstract: A base station device includes: a receiver, which, in operation, receives signals from one or more other base station devices in a system using an adjacent frequency band; a searcher, which, in operation, searches for one or more center frequencies of signals from the one or more other base station devices; a selector, which, in operation, selects a synchronization target base station device from which a respective center frequency has been acquired from among the one or more other base station devices; and a controller, which, in operation, sets an operation parameter to establish synchronization with transmission and reception timings of the synchronization target base station device.

Abstract: In a base station that transmits data to a first terminal in coordination with a coordination-providing base station, and functions as a connection-making base station that instructs the coordination-providing base station on a transmission parameter that is used for coordinated communication, a reception processor receives first CSI between the connection-making base station and the first terminal from the first terminal, and, receives, from each of at least one or more second terminals other than the first terminal, second CSI between the connection-making base station and a second terminal, and third CSI between the coordination-providing base station and at least one second terminal, a CSI estimator configures the third CSI which corresponds to a terminal, to which the first CSI and the second CSI are the closest, of the at least one or more second terminals, as an estimation value of CSI between the coordination-providing base station and the first terminal.

Abstract: In a base station that transmits data to a first terminal in coordination with a coordination-providing base station, and functions as a connection-making base station that instructs the coordination-providing base station on a transmission parameter that is used for coordinated communication, a reception processor receives first CSI between the connection-making base station and the first terminal from the first terminal, and, receives, from each of at least one or more second terminals other than the first terminal, second CSI between the connection-making base station and a second terminal, and third CSI between the coordination-providing base station and at least one second terminal, a CSI estimator configures the third CSI which corresponds to a terminal, to which the first CSI and the second CSI are the closest, of the at least one or more second terminals, as an estimation value of CSI between the coordination-providing base station and the first terminal.

Abstract: A solar cell module includes: two solar cells adjacent to each other, the two solar cells each having a first main surface and a second main surface. At least one solar cell of the two solar cells includes: a plurality of first finger electrodes disposed on the first main surface; a plurality of second finger electrodes disposed on the second main surface; and a plurality of reinforcement lines disposed on the second main surface. The plurality of reinforcement lines are disposed at positions where the plurality of reinforcement lines at least partially overlap the plurality of first finger electrodes, respectively, in a front view of the at least one solar cell, and a first pitch between the plurality of reinforcement lines is different from a second pitch between the plurality of second finger electrodes.

Abstract: A wireless communication system includes a plurality of baseband processing apparatuses each of which performs baseband signal processing and outputs a baseband signal, and a wireless apparatus which makes connections to the plurality of baseband processing apparatuses and transmits a radio frequency signal that is obtained by performing radio frequency signal processing on the baseband signal that is output from one of the plurality of baseband processing apparatuses.

Abstract: Multicast transmission and inter-cell interference coordination can be flexibly switched using Multicast-Broadcast Single Frequency Network (MBSFN) subframe without reduction of resource utilization efficiency. A transmission data determination unit determines that a first area is used as either of a first subframe performing multicast transmission or a second subframe performing inter-cell interference coordination based on presence or absence of transmission data in each of the first area which is configured to have at least some subframes among a plurality of MBSFN subframes. Wireless communication IF unit performs a transmission process in the first area according to a determination result.