Abstract: A service management device manages a service delivered in a predetermined area. The service management device has an operator interface including a display that displays information for an operator and receiving an input from the operator. The service management device communicates with an autonomous robot used for delivering the service in the predetermined area to acquire, from the autonomous robot, service robot information indicating at least a position and a status of the autonomous robot. The service management device displays a map of the predetermined area and the position of the autonomous robot on the display, based on the service robot information. When the autonomous robot displayed on the display is specified by the operator through the operator interface, the service management device displays a status window indicating the status of the autonomous robot specified by the operator on the display, based on the service robot information.

Abstract: An imaging module of the invention includes an image-sensing device that has a light-receiving face, a substrate, a signal cable including a conductor, and a resin mold. A wiring of the substrate includes an electrode terminal and a cable terminal. The image-sensing device electrode is electrically connected to the electrode terminal via solder. The conductor is electrically connected to the cable terminal via solder. The resin mold coats the electrode surface, the cable terminal, the conductor, and the solder. On a plane of projection of the image-sensing device when viewed in a direction from the image-sensing device to the signal cable, the substrate, the resin mold, and the signal cable are disposed inside an outline of the image-sensing device.

Abstract: An imaging module includes an imaging element including a light receiving surface, an electrode surface on a side opposite to the light receiving surface, and imaging element electrodes formed on the electrode surface, a substrate including a first surface, a second surface on a side opposite to the first surface, and a first end surface facing the electrode surface, a cable portion having a conductor electrically connected to the imaging element electrodes via a wire on the substrate, a sealing resin that covers at least the first surface and the second surface, and an identification resin attached to a portion of the sealing resin on the first surface or a portion of the sealing resin on the second surface.

Abstract: An imaging module of the invention includes an image-sensing device that has a light-receiving face, a substrate, a signal cable including a conductor, and a resin mold. A wiring of the substrate includes an electrode terminal and a cable terminal. The image-sensing device electrode is electrically connected to the electrode terminal via solder. The conductor is electrically connected to the cable terminal via solder. The resin mold coats the electrode surface, the cable terminal, the conductor, and the solder. On a plane of projection of the image-sensing device when viewed in a direction from the image-sensing device to the signal cable, the substrate, the resin mold, and the signal cable are disposed inside an outline of the image-sensing device.

Abstract: An imaging module includes an imaging element including a light receiving surface, an electrode surface on a side opposite to the light receiving surface, and imaging element electrodes formed on the electrode surface, a substrate including a first surface, a second surface on a side opposite to the first surface, and a first end surface facing the electrode surface, a cable portion having a conductor electrically connected to the imaging element electrodes via a wire on the substrate, a sealing resin that covers at least the first surface and the second surface, and an identification resin attached to a portion of the sealing resin on the first surface or a portion of the sealing resin on the second surface.

Abstract: An imaging unit includes: a solid-state imager including an imaging surface disposed on a front surface of the solid-state imager and electrode pads disposed separately from each other on a rear surface of the solid-state imager that is opposite to the front surface; and a coaxial cable electrically connected to the electrode pads on the rear surface of the solid-state imager. The coaxial cable includes: an inner coated wire including an internal conductor that includes a plurality of element wires and an inner insulating layer that coats a surrounding circumference of the internal conductor; an external conductor including a plurality of element wires that surround the inner coated wire; and an outer insulating layer that coats the external conductor.

Abstract: An imaging unit includes: a solid-state imager including an imaging surface disposed on a front surface of the solid-state imager and electrode pads disposed separately from each other on a rear surface of the solid-state imager that is opposite to the front surface; and a coaxial cable electrically connected to the electrode pads on the rear surface of the solid-state imager. The coaxial cable includes: an inner coated wire including an internal conductor that includes a plurality of element wires and an inner insulating layer that coats a surrounding circumference of the internal conductor; an external conductor including a plurality of element wires that surround the inner coated wire; and an outer insulating layer that coats the external conductor.

Abstract: The EL device driving device comprising a plurality of EL devices having two electrodes, a first EL driving IC having a plurality of output terminals connected to one electrodes of the plurality of EL devices and an input terminal, a second EL driving IC having a plurality of output terminals connected to the other electrodes of the plurality of EL devices and an input terminal, a first AC power supply for supplying an AC voltage of sinusoidal waveform, with one electrode being connected to the input terminal of the first EL driving IC, and a second AC power supply for supplying an AC voltage of sinusoidal waveform having the same waveform as the AC voltage supplied from the first AC supply, and shifted in phase 180 degrees, with one electrode being connected to the input terminal of the second EL driving IC.

Abstract: The EL device driving device comprising a plurality of EL devices (L1, L2, . . . , Ln) having two electrodes, a first EL driving IC (5) having a plurality of output terminals (B1, B2, . . . , Bn) connected to one electrodes of the plurality of EL devices and an input terminal (15), a second EL driving IC (6) having a plurality of output terminals (B1, B2, . . . , Bn) connected to the other electrodes of the plurality of EL devices and an input terminal (16), a first AC power supply (9) for supplying an AC voltage of sinusoidal waveform, with one electrode being connected to the input terminal (15) of the first EL driving IC (5), and a second AC power supply (10) for supplying an AC voltage of sinusoidal waveform having the same waveform as the AC voltage supplied from the first AC supply (9), and shifted in phase 180 degrees, with one electrode being connected to the input terminal (16) of the second EL driving IC (6).

Abstract: There are provided a method of and an apparatus for controlling a pulse controlled brushless motor to immediately pull-in the motor to a predetermined rotational speed. The method has the steps of encoding rotational condition of a rotor into an electric signal, detecting the encoded signal to determine whether the rotor is in rotation or not, synchronizing a signal of a pull-in pulse rate with a clock pulse when the rotor is not in rotation and synchronizing the encoded signal with the clock pulse when the rotor is in rotation to form an input pulse train. The input pulse train is supplied to a peripheral circuit to excite the motor.