Abstract: [Problem] To provide a rotor unit that may effectively prevent detachment of a magnet with a holder while absorbing dimensional errors of a rotor main body and the magnet. [Solution] In the rotor unit according to the present invention, the holder mountable on the rotor main body prevents the magnet from being detached from the rotor main body. The holder includes an elastically deformable insertion arm extending from a flat-plate like holder main body, a hook portion provided on a free end side of the insertion arm, an elastically deformable magnet pressing arm extending from the holder main body, and a magnet pressing portion provided on a free end side of the magnet pressing arm. The rotor main body includes a hook hole into which the insertion arm is inserted, and the hook hole is provided with a locking portion in which the hook portion is lockable.

Abstract: To provide a positioning technology capable of measuring a position of a moving object moving at high speed with high reliability, high accuracy, and high speed. The positioning system 1000 can obtain accurate position data using the positioning information collected from a plurality of base stations, and deliver the obtained accurate position data to the base station. In the positioning system 1000, the base station serving as the position reference station can always hold the accurate position data based on the accurate measurement result data. In the positioning system 1000, the base station whose accurate position is known is used as a position reference station to perform RTK positioning with, for example, the mobile station, thus allowing the position of the mobile station to be measured with high accuracy.

Abstract: A system capable of achieving time synchronization among a plurality of apparatuses provided at positions where they are unable to receive a GNSS signal is provided. A time synchronization system includes a reference time obtaining unit configured to obtain, based on a radio signal from a global navigation satellite system, a first timing signal and time information corresponding to timing indicated by the first timing signal, a modulator, connected to a line branched into a plurality of branches, configured to generate a modulated signal containing corresponding time information in synchronization with the first timing signal and to send the modulated signal over the line, at least one demodulator, connected to any branch of the line, configured to demodulate the modulated signal propagating over the line, and at least one transmitter configured to transmit a first radio signal compatible with the radio signal from the global navigation satellite system.

Abstract: To provide a positioning technology capable of measuring a position of a moving object moving at high speed with high reliability, high accuracy, and high speed. The positioning system 1000 can obtain accurate position data using the positioning information collected from a plurality of base stations, and deliver the obtained accurate position data to the base station. In the positioning system 1000, the base station serving as the position reference station can always hold the accurate position data based on the accurate measurement result data. In the positioning system 1000, the base station whose accurate position is known is used as a position reference station to perform RTK positioning with, for example, the mobile station, thus allowing the position of the mobile station to be measured with high accuracy.

Abstract: A system capable of achieving time synchronization among a plurality of apparatuses provided at positions where they are unable to receive a GNSS signal is provided. A time synchronization system includes a reference time obtaining unit configured to obtain, based on a radio signal from a global navigation satellite system, a first timing signal and time information corresponding to timing indicated by the first timing signal, a modulator, connected to a line branched into a plurality of branches, configured to generate a modulated signal containing corresponding time information in synchronization with the first timing signal and to send the modulated signal over the line, at least one demodulator, connected to any branch of the line, configured to demodulate the modulated signal propagating over the line, and at least one transmitter configured to transmit a first radio signal compatible with the radio signal from the global navigation satellite system.

Abstract: An inertial sensor according to the present disclosure includes a sensor element having a multilayer structure in which a first substrate, a second substrate, and a sensor substrate are stacked one on top of another. The first substrate includes a substrate body, a first interconnect, an electrode layer, and a silicon member. The first interconnect is provided inside the substrate body. The electrode layer is provided for the substrate body and electrically connected to the first interconnect. The silicon member is provided at an end of the substrate body. The silicon member has, in a cross-sectional view, a curved portion and a linear portion connected to the curved portion. The electrode layer is provided to cover the curved portion and the linear portion.

Abstract: A connection assembly includes a sensor substrate, a layer substrate coupled to the sensor substrate so as to face an upper surface of the sensor substrate, and a wire connected between the sensor substrate and the layer substrate. The sensor substrate includes first and second projections provide on the upper surface of the sensor substrate and extending in an extension direction along the upper surface of the sensor substrate. The wire has a first end sandwiched between the layer substrate and the first projection, and a second end sandwiched between the layer substrate and the second projection. The connection assembly provides reliable connection.

Abstract: A wiring-buried glass substrate includes a glass substrate and a first wiring. The glass substrate includes a first surface, a second surface perpendicular to the first surface, and a third surface facing the first surface. The first wiring includes a first pillar portion and a first beam portion. The first pillar portion extends in a first direction perpendicular to the first surface of the glass substrate. The first beam portion is connected to a first surface of the first pillar portion and extends to a second direction perpendicular to a second surface of the glass substrate. The first wiring is buried in the glass substrate. The first surface of the first beam portion is exposed from a third surface of the glass substrate.

Abstract: A connection assembly includes a sensor substrate, a layer substrate coupled to the sensor substrate so as to face an upper surface of the sensor substrate, and a wire connected between the sensor substrate and the layer substrate. The sensor substrate includes first and second projections provide on the upper surface of the sensor substrate and extending in an extension direction along the upper surface of the sensor substrate. The wire has a first end sandwiched between the layer substrate and the first projection, and a second end sandwiched between the layer substrate and the second projection. The connection assembly provides reliable connection.

Abstract: A wiring-buried glass substrate includes a glass substrate and a first wiring. The glass substrate includes a first surface, a second surface perpendicular to the first surface, and a third surface facing the first surface. The first wiring includes a first pillar portion and a first beam portion. The first pillar portion extends in a first direction perpendicular to the first surface of the glass substrate. The first beam portion is connected to a first surface of the first pillar portion and extends to a second direction perpendicular to a second surface of the glass substrate. The first wiring is buried in the glass substrate. The first surface of the first beam portion is exposed from a third surface of the glass substrate.

Abstract: A list display apparatus that displays multiple pieces of character string data in a list on a display unit includes a storage unit that stores the multiple pieces of character string data; a sorting unit that sorts the multiple pieces of character string data stored in the storage unit in a character code order; a ligature decomposing unit that decomposes a ligature included in the multiple pieces of character string data into multiple original letters on which the ligature is based in the sorting by the sorting unit; and a sorting control unit that controls the sorting unit so that the multiple letters resulting from the decomposition by the ligature decomposing unit is used in the sorting, instead of the ligature.

Abstract: A list display apparatus that displays multiple pieces of character string data in a list on a display unit includes a storage unit that stores the multiple pieces of character string data; a sorting unit that sorts the multiple pieces of character string data stored in the storage unit in a character code order; a ligature decomposing unit that decomposes a ligature included in the multiple pieces of character string data into multiple original letters on which the ligature is based in the sorting by the sorting unit; and a sorting control unit that controls the sorting unit so that the multiple letters resulting from the decomposition by the ligature decomposing unit is used in the sorting, instead of the ligature.

Abstract: A transmission channel selection system which selects channels based upon the destination addresses of the data packets to be transmitted. The system includes a channel controller, a setting table, and a channel selection unit. The channel controller controls transmission of packet data corresponding to a plurality of transmission channels of an integrated service digital network (ISDN) line. The setting table sets a relationship between destination addresses of the packet data and the transmission channels of the ISDN line in advance. When packet data to be transmitted is input, the channel selection unit selects a transmission channel, of the ISDN line, corresponding to a destination address of the packet data with reference to the setting table. The packet data is transmitted to the ISDN line through the channel control means using the selected transmission channel.

Abstract: In a network system including a plurality of LANs connected to an ISDN via a plurality of routers each of which includes a table for router information, each router sets local router information and main/sub setting information. Each sub-router sets main router information which is written in said table. Each sub-router sends an enquiry packet including the local router information to the main router. The main router receives the enquiry packet, enters the local router information in the table, and sends, to each sub-router, a reply packet including the local router information stored in the table. Each sub-router receives the reply packet and enters the local router information in the table. On the basis of the router information stored in the table, each router renews routing information.