Abstract: An antenna system for vehicle includes a vehicle and a MIMO antenna that is mounted on the vehicle and that transmits and receives radio waves of a predetermined frequency. The MIMO antenna includes antennas including a first antenna that mainly transmits and receives a first polarized wave and a second antenna that mainly transmits and receives a second polarized wave orthogonal to the first polarized wave, and the antennas are dispersedly arranged on the vehicle. One of the first antenna and the second antenna are arranged based on at least one of (1) a configuration in which one is arranged in a central region and another one is arranged in a first peripheral region or a second peripheral region and (2) a configuration in which one is arranged in a first region and another one is arranged in a second region.

Abstract: A laminated glass for vehicle with an inner mirror mounted to an opening of a vehicle body includes a laminated glass including a vehicle outside glass plate, and a vehicle inside glass plate bonded to the vehicle outside glass plate via an intermediate film; and an inner mirror mounted to the laminated glass via a mirror base. A plate thickness of the vehicle inside glass plate is less than a plate thickness of the vehicle outside glass plate, and is 1.3 mm or less. The vehicle inside glass plate has a cutout portion in at least a part of an upper edge. The mirror base is mounted to a vehicle interior surface of the vehicle outside glass plate through the cutout portion of the vehicle inside glass plate.

Abstract: A window glass with a seal member mounted to an opening of a vehicle includes a laminated glass including a vehicle outside glass plate, a vehicle inside glass plate, and an intermediate film; and a seal member arranged in a peripheral portion of the laminated glass. A plate thickness of the vehicle inside glass plate is less than that of the vehicle outside glass plate, and 1.0 mm or less. The vehicle outside glass plate has a shielding layer in a peripheral portion of a vehicle inside surface. In a cross section of the laminated glass perpendicular to an outer peripheral edge, an end of the vehicle inside glass plate is located inward in an in-plane direction with respect to an end of the vehicle outside glass plate. The seal member has a first fixing part that is bonded to the vehicle outside glass plate via the shielding layer.

Abstract: A laminated glass for vehicle with an inner mirror mounted to an opening of a vehicle body includes a laminated glass including a vehicle outside glass plate, and a vehicle inside glass plate bonded to the vehicle outside glass plate via an intermediate film; and an inner mirror mounted to the laminated glass via a mirror base. A plate thickness of the vehicle inside glass plate is less than a plate thickness of the vehicle outside glass plate, and is 1.3 mm or less. The vehicle inside glass plate has a cutout portion in at least a part of an upper edge. The mirror base is mounted to a vehicle interior surface of the vehicle outside glass plate through the cutout portion of the vehicle inside glass plate.

Abstract: A window glass with a seal member mounted to an opening of a vehicle includes a laminated glass including a vehicle outside glass plate, a vehicle inside glass plate, and an intermediate film; and a seal member arranged in a peripheral portion of the laminated glass. A plate thickness of the vehicle inside glass plate is less than that of the vehicle outside glass plate, and 1.0 mm or less. The vehicle outside glass plate has a shielding layer in a peripheral portion of a vehicle inside surface. In a cross section of the laminated glass perpendicular to an outer peripheral edge, an end of the vehicle inside glass plate is located inward in an in-plane direction with respect to an end of the vehicle outside glass plate. The seal member has a first fixing part that is bonded to the vehicle outside glass plate via the shielding layer.

Abstract: A resin body attachable to a peripheral region of a glass plate includes an information device attachment portion. The resin body may be attachable along a side of the glass plate. The information device attachment portion may include an insertion part through which an information device can be inserted, a fixing part where the information device can be fixed, and a transmission part through which signals from or to the information device can be transmitted.

Abstract: A glass antenna for a vehicle that has a first element elongated in a first direction, a second element elongated in a second direction, a third element including first, second and third partial elements that are each elongated in specific directions, and a fourth element elongated in the second direction but detours the second element in the second direction.

Abstract: A glass antenna for a vehicle on or in a window glass including a defogger having a plurality of heater wires that run in parallel, the glass antenna includes: an antenna conductor; a first feeding portion; and a second feeding portion adjacent to the first feeding portion, wherein: the antenna conductor includes a first antenna conductor, which extends clockwise with the first feeding portion as a starting point, and a second antenna conductor, which extends counterclockwise at the outside of the first antenna conductor with the second feeding portion as a starting point; and the second antenna conductor includes a first element extending between the first antenna conductor and the defogger.

Abstract: A glass antenna for a vehicle includes a first to fourth elements, a connection element and a first and second feeding portions. The first element is elongated from the first feeding portion in a first direction. The second element is elongated from the first element in a second direction. The third element includes: a first partial element which is elongated from the first element in a third direction; a second partial element which is elongated from the first partial element in a fourth direction; and a third partial element which is elongated from the second partial element. The fourth element is elongated from the second feeding portion in the second direction, and detours the second element in the second direction, on a side of the second direction to be elongated in the third direction. The connection element connects the fourth element to a defogger.

Abstract: A glass antenna for a vehicle on or in a window glass including a defogger having a plurality of heater wires that run in parallel, the glass antenna includes: an antenna conductor; a first feeding portion; and a second feeding portion adjacent to the first feeding portion, wherein: the antenna conductor includes a first antenna conductor, which extends clockwise with the first feeding portion as a starting point, and a second antenna conductor, which extends counterclockwise at the outside of the first antenna conductor with the second feeding portion as a starting point; and the second antenna conductor includes a first element extending between the first antenna conductor and the defogger.

Abstract: A glass antenna for a vehicle includes a first to fourth elements, a connection element and a first and second feeding portions. The first element is elongated from the first feeding portion in a first direction. The second element is elongated from the first element in a second direction. The third element includes: a first partial element which is elongated from the first element in a third direction; a second partial element which is elongated from the first partial element in a fourth direction; and a third partial element which is elongated from the second partial element. The fourth element is elongated from the second feeding portion in the second direction, and detours the second element in the second direction, on a side of the second direction to be elongated in the third direction. The connection element connects the fourth element to a defogger.

Abstract: The invention provides a temperature-compensated crystal oscillator employing an AT-cut crystal resonator in a crystal oscillation circuit, having a substantially constant oscillation frequency at approximately room temperature, wherein an output of a temperature sensor, having a substantially rectilinear temperature characteristic, is converted into square-law cure signals by a square-law converter circuit on the lower temperature side and a square-law converter circuit on the higher temperature side, respectively, which are then combined together by a signal synthesis circuit, producing a rectilinear correction signal. Frequency adjustment circuits are controlled by the signal, and temperature compensation is achieved by executing rectilinear correction of the oscillation frequency of the crystal oscillation circuit. In the case where the oscillation frequency of the AT-cut crystal resonator has a temperature characteristic having any gradient, a gradient is added to the rectilinear correction signal.