Semiconductor Components Industries, LLC

Sanyo Electric Co., Ltd.

Sanyo Semiconductor Co., Ltd.

Kabushiki Kaisha Toyota Jidoshokki

Denso Corporation

Sanyo Electronic Co., Ltd.

Tomonori Kamiya

Yoshihisa Yamada

Yoshihisa Tabuchi

Tomofumi Watanabe

Hiroyuki Tsuda

Takeshi Kura

Yukihito Takeda

Hiroki Nagai

Takayuki Suzuki

Koji Hika

Hironobu Okamoto

Yuichiro Tsukamizu

Koji Hayashi

Fumiaki Nagao

Yoshinori Okuno

Yukihiko Shigeoka

Shinya Goto

Junji Inoue

Nobutoshi Kajiya

Hidemitsu Senoo

Naohiro Nishiwaki

Hideto Uchida

Atsushi Kondou

Satoshi Sugiwara

An operation assisting apparatus for a load handling vehicle conveying a load carried on a load handling apparatus includes a sensor, an object extraction unit configured to extract, as objects, a group of points representing parts of the objects from a result detected by the sensor in a coordinate system in a real space, a load handling space derivation unit configured to derive a load handling space occupied by the load during load handling work performed by the load handling apparatus in the coordinate system in the real space, a clearance derivation unit configured to derive a value of a clearance between the load handling space and an adjacent object adjacent to the load handling space, and an informing unit configured to inform an operator of the load handling vehicle of information about the value of the clearance.

Operation assisting apparatus for load handling vehicle

An industrial vehicle remote operation system includes an industrial vehicle including a vehicle communication part that performs wireless communication; a remote operation device including a remote communication part that performs wireless communication with the vehicle communication part, wherein the remote operation device is used to remotely operate the industrial vehicle; and a remote-operation stop control part that, based on a fact that a remote-operation stop operation has been performed on the remote operation device in a situation where operation of the industrial vehicle is being performed through a remote operation by the remote operation device, performs an operation stop control for stopping the operation of the industrial vehicle, and stops the remote operation by the remote operation device after the operation stop control is completed.

Industrial vehicle remote operation system, remote operation device, industrial vehicle, remote memory storing industrial vehicle remote operation program, and industrial vehicle remote operation method

An industrial vehicle remote control system includes a forklift that has a vehicle communication unit and a remote control device that has a remote communication unit and is used to remotely control the forklift. A vehicle wireless CPU of the industrial vehicle remote control system acquires the received radio wave intensity of a remote control signal by which the two communication units wirelessly communicate, and, on the basis of the results thereof, determines whether the forklift is positioned in a permission range or in a prohibition range.

Remote control system for industrial vehicles, industrial vehicle, remote control device, remote control program for industrial vehicles, and remote control method for industrial vehicles

A fuel injection valve includes a nozzle portion for injecting fuel, a fuel inlet port, a fuel supply main passage for supplying the fuel from the fuel inlet port to the nozzle portion, a pressure sensor for detecting fuel pressure in the fuel supply main passage, and a fuel introduce passage for supplying the fuel from the fuel supply main passage to the pressure sensor. The fuel supply main passage includes a first fuel supply passage extending in a first direction from the fuel inlet port to the pressure sensor and a second fuel supply passage extending in a second direction from the pressure sensor to the nozzle portion.

Fuel injection valve

Various embodiments of the present technology may provide methods and system for an integrated circuit. The system may provide a plurality of integrated circuits (i.e., slave devices) connected to and configured to communicate with a host device. Each integrated circuit may comprise a register storing a common default address. Each integrated circuit may further comprise an interface circuit configured to overwrite the default address of one integrated circuit with a new address while preventing changes to the remaining integrated circuits.

Methods and system for an integrated circuit

Various embodiments of the present technology may provide methods and system for an integrated circuit. The system may provide, at most, two integrated circuits (i.e., slave devices) connected to and configured to communicate with a host device (i.e., a master device). At least one of integrated circuits may comprise a first interface and a second interface, wherein the second interface is connected to the host in a manner that is opposite that of the first interface.

Various embodiments of the present technology may provide methods and system for communication between a host device and slave devices. The system may provide a plurality of integrated circuits (i.e., slave devices) connected to and configured to communicate with a host device (i.e., a master device). Each integrated circuit may provide a register to store a unique slave address, a global slave address, and an order number. The host device may communicate with each slave device individually using the unique slave address and communicate with all slave devices simultaneously using the global slave address and the order number.

Methods and system for communication between a host device and slave devices

In accordance with an embodiment, an actuator control circuit includes a driver circuit connected to a ringing characteristic determination circuit. A signal generator that is configured to generate an output signal having first period that has first and second portions where the first portion longer than the second portion is connected to the ringing characteristic determination circuit. Another embodiment includes a method for controlling an actuator by determining a resonant frequency and a ringing amplitude of an actuator signal; generating a control signal in response to the resonant frequency and the ringing amplitude of the actuator signal; and causing the actuator to move in response to the second drive signal.

Control circuit and method

A first terminal supplies the bias voltage to a high-potential-side input terminal of a hall element. A second terminal supplies the ground potential to a low-potential-side input terminal of the hall element. A P-channel type transistor is configured such that the source terminal is connected to the power supply potential and the drain terminal is connected to the first terminal. An operational amplifier differentially amplifies the voltage between a predetermined set voltage and the voltage at the first terminal so as to control the gate voltage of the P-channel type transistor.

Hall element control circuit

The present invention comprises: an analog/digital conversion means for converting vibration detection signals output from a vibration detection element that detects vibrations of an imaging device into digital signals; a gyro filter that obtains the amount of movement of the imaging device based on the vibration detection signals digitalized by the analog/digital conversion means; a rotation control means for generating an amount of rotary drive in a stepping motor based on both the current position and amount of movement of an optical component or an imaging element; and a stepping control means for generating and outputting pulse signals that drive the rotation of the stepping motor in each phase according to the amount of rotary drive, wherein the stepping control means enables pulse-width modulation of the ratio between the periods in which high-level pulse signals and low-level pulse signals are respectively applied to the same phase of the stepping motor.

Vibration compensation circuit and imaging device including the same

A fuel injection valve includes a needle for opening or closing an injection hole. The needle moves in response to a fuel pressure in a control chamber. The fuel injection valve includes an electromagnetic valve which opens or closes a discharge passage for changing pressure in the control chamber to actuate the needle. A narrow part is provided in the discharge passage. The narrow part is formed to shorten a length along a flow direction. The shortened narrow part can suppress pulsations. Therefore, it is possible to accurately control injection quantity, since a variation of closing speed of the armature caused by the pulsations can be suppressed.

A MCP semiconductor device with an 'anti-shake' function includes a driver chip and a logic chip. The logic chip includes a correction signal processing unit which obtains a value for vibration of apparatus based on a vibration detection signal to generate a correction signal and a control signal output unit having a plurality of types of signal output sections which output a vibration control signal in accordance with the correction signal to a vibration correction control unit which executes vibration correction control for an optical component. The logic chip further includes a driver output terminal which outputs the vibration control signal to the driver chip, an external output terminal which outputs the control signal to an external circuit other than the driver chip, and also an output switch unit which connects one of the plurality of signal output sections with the driver output terminal or the external output terminal.

Semiconductor device and imaging capturing apparatus

A focus control circuit is installed in an image pickup apparatus including a lens, a driver element for adjusting the position of the lens, and a position detecting element for detecting the position of the lens. An equalizer included in the focus control circuit generates a drive signal used to adjust the position of the lens to a position to be set, based on a difference between the position of the lens identified by the position detecting element and the set position. When an instruction to vary a target position of the lens is received externally, a position setting unit included in the focus control circuit sets sequentially a plurality of positions in a range covering a new target position and a previous target position, to the equalizer before the new target position is reached from the previous target position.

Focus control circuit for adjusting the focus by moving a lens

In a control circuit for servo control of a piezoelectric actuator, it is possible to efficiently move a movement object toward a target position in each servo control cycle. A pulse generation circuit () generates a drive pulse a plurality of times within a servo control cycle. The ideal value of the amount of movement in one drive pulse is stored in a register (), and is used to estimate the amount of movement required to reach the target position of a lens () each time a drive pulse is generated. It is possible to switch between coarse movement and fine movement by using two types of drive pulses that have mutually different duty ratios, and the lens () can be rapidly moved by coarse movement when the required amount of movement is large, and fine movement when the required amount of movement is small.

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Ichinomiya, Japan

Tomonori Kamiya