Abstract: A novel antibody that can be used as an anti-tumor agent and an anti-tumor agent that comprises, as an active ingredient, a molecule containing such an antibody.

Abstract: According to one embodiment, a head-separated camera device includes an imaging unit, a control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit and the control unit. The imaging unit includes a sensor configured to capture an image to provide a video signal, a superimposition module configured to superimpose, on serial data, the video signal, the synchronization signal, and the clock signal, the serial data serving to reproduce the image captured by the sensor, and a transmitter configured to transmit the serial data to the control unit. The control unit includes a receiver configured to receive the serial data and a separation module configured to separate the serial data received by the receiver, into the video signal, the synchronization signal, and the clock signal.

Abstract: A coaxial cable according to this embodiment includes: a center conductor; an insulating layer that coats the center conductor; an outer conductor that coats the insulating layer; and an insulating coating film that coats the outer conductor. The insulating layer has, at least one end portion thereof, an outer diameter smaller than an outer diameter of other portions thereof.

Abstract: According to an aspect of the present invention, there is provided a camera head separated type camera device including: a camera head; a camera control unit; and a cable connecting the camera head and the camera control unit with each other, wherein the camera control unit includes: a control portion which feeds a predetermined DC (Direct Current) voltage to the camera head, and wherein the camera head includes: an LVDS conversion driver portion which transmits an LVDS (Low Voltage Differential Signaling) signal to the camera control unit; a correction control portion which outputs a correction value for the LVDS signal; and an LVDS control portion which controls the LVDS conversion driver portion based on the correction value.

Abstract: According to one embodiment, a head-separated camera device includes an imaging unit, a control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit and the control unit. The imaging unit includes a sensor configured to capture an image to provide a video signal, a superimposition module configured to superimpose, on serial data, the video signal, the synchronization signal, and the clock signal, the serial data serving to reproduce the image captured by the sensor, and a transmitter configured to transmit the serial data to the control unit. The control unit includes a receiver configured to receive the serial data and a separation module configured to separate the serial data received by the receiver, into the video signal, the synchronization signal, and the clock signal.

Abstract: According to one embodiment, a camera apparatus includes, an imaging unit which acquires videos, a cable which connects the imaging unit to a control unit, and the control unit which comprises an asynchronous FIFO memory and a signal processing module and controls the imaging unit, the control unit performing transmitting to the imaging unit a drive signal configured to control an image sensor included in the imaging unit, and receiving a video signal including a clock signal or a synchronous signal output from the image sensor and converting this signal into a video signal standardized via the signal processing module.

Abstract: According to one embodiment, a method for controlling a head-separated camera device in which a camera head and a camera control unit are connected to each other by a cable comprising a line that supplies the camera head with serial data from the camera control unit. The method comprises outputting, by the camera control unit, serial data containing information for specifying a predetermined control target device of a plurality of control target devices to be controlled, where the plurality of control target devices are implemented within the camera head. The method further comprises identifying, by the camera head, the predetermined control target device specified by the serial data received, and supplying the predetermined control target device with an active select signal.

Abstract: According to one embodiment, a camera control unit outputs serial data containing information for specifying a predetermined control target device to be controlled from among plural control target devices comprised in a camera head. The camera head identifies the control target device specified by the received serial data, and supplies the identified control target device with a select signal for an active state.

Abstract: According to one embodiment, a head-separated device has an imaging unit, a control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit with the control unit, wherein the imaging unit comprises sensor configured to capture an image, and a transmitter configured to transmit a video signal, a sync signal (HD, VD) and a clock signal to restore or to reproduce the image captured by the sensor, and the control unit comprises a determining module configured to determine whether a waveform of the video signal has a level that the video processor is processable, and a setting module configured to set the transmitter to perform enhancement correction to the video signal, if the determining module determines that the waveform of the video signal does not have the level that the video processor is processable.

Abstract: According to one embodiment, a camera apparatus includes, an imaging unit which acquires videos, a cable which connects the imaging unit to a control unit, and the control unit which comprises an asynchronous FIFO memory and a signal processing module and controls the imaging unit, the control unit performing transmitting to the imaging unit a drive signal configured to control an image sensor included in the imaging unit, and receiving a video signal including a clock signal or a synchronous signal output from the image sensor and converting this signal into a video signal standardized via the signal processing module.

Abstract: According to one embodiment, a head-separated device has an imaging unit, a control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit with the control unit, wherein the imaging unit comprises sensor configured to capture an image, and a transmitter configured to transmit a video signal, a sync signal (HD, VD) and a clock signal to restore or to reproduce the image captured by the sensor, and the control unit comprises a determining module configured to determine whether a waveform of the video signal has a level that the video processor is processable, and a setting module configured to set the transmitter to perform enhancement correction to the video signal, if the determining module determines that the waveform of the video signal does not have the level that the video processor is processable.

Abstract: According to an aspect of the present invention, there is provided a camera head separated type camera device including: a camera head; a camera control unit; and a cable connecting the camera head and the camera control unit with each other, wherein the camera control unit includes: a control portion which feeds a predetermined DC (Direct Current) voltage to the camera head, and wherein the camera head includes: an LVDS conversion driver portion which transmits an LVDS (Low Voltage Differential Signaling) signal to the camera control unit; a correction control portion which outputs a correction value for the LVDS signal; and an LVDS control portion which controls the LVDS conversion driver portion based on the correction value.

Abstract: According to one embodiment, a head-separated camera device has an imaging unit, control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit with the control unit, wherein the imaging unit comprises a sensor configured to capture an image, and a transmitter configured to transmit a video signal, a synchronization signal, and a clock signal, for recovering or reproducing the image captured by the sensor, and the control unit comprises detector configured to detect that the imaging unit is connected to the control unit if a preset value preset in the imaging unit is read via a control line, and a setting module configured to set a register setting in the sensor if the detector detects connection of the imaging unit.

Abstract: According to one embodiment, a head-separated camera device includes an imaging unit, a control unit configured to control the imaging unit and a connection unit configured to connect the imaging unit and the control unit. The imaging unit includes a sensor configured to capture an image to provide a video signal, a superimposition module configured to superimpose, on serial data, the video signal, the synchronization signal, and the clock signal, the serial data serving to reproduce the image captured by the sensor, and a transmitter configured to transmit the serial data to the control unit. The control unit includes a receiver configured to receive the serial data and a separation module configured to separate the serial data received by the receiver, into the video signal, the synchronization signal, and the clock signal.

Abstract: According to one embodiment, a camera control unit outputs serial data containing information for specifying a predetermined control target device to be controlled from among plural control target devices comprised in a camera head. The camera head identifies the control target device specified by the received serial data, and supplies the identified control target device with a select signal for an active state.

Abstract: According to one embodiment, a remote head camera includes a camera control unit, and a camera head configured to be connected to the camera control unit and including an imaging device, a drive signal generator, and a format identifying unit. The drive signal generator generates a drive signal for driving the imaging device. The format identifying unit identifies a format of the imaging device based on a clock count in a synchronization period from a first synchronization pulse to a second synchronization pulse output after the first synchronization pulse. The first synchronization pulse and the second synchronization pulse constitutes a synchronization signal.

Abstract: According to one embodiment, a remote head camera includes a camera control unit, and a camera head configured to be connected to the camera control unit and including an imaging device, a drive signal generator, and a format identifying unit. The drive signal generator generates a drive signal for driving the imaging device. The format identifying unit identifies a format of the imaging device based on a clock count in a synchronization period from a first synchronization pulse to a second synchronization pulse output after the first synchronization pulse. The first synchronization pulse and the second synchronization pulse constitutes a synchronization signal.

Abstract: When a user wants to transfer display data of a personal computer to project it by a projector, the user firstly mounts a medium on the projector to depress a dedicated button of a remote controller. Then, since a variety of items of information including random numbers generated from the projector are stored on the medium, the user re-mounts the medium on the personal computer. In this state, when the user initiates a dedicated utility, environment setting for wireless communication based on the variety of items of information stored on the medium is performed and a connection request with the random numbers added thereto is transmitted to the projector. The projector received this connection request replies a permission notification on condition of coincidence in random numbers and the personal computer received this notification automatically starts to transfer the display data.

Abstract: When a user wants to transfer display data of a personal computer to project it by a projector, the user firstly mounts a medium on the projector to depress a dedicated button of a remote controller. Then, since a variety of items of information including random numbers generated from the projector are stored on the medium, the user re-mounts the medium on the personal computer. In this state, when the user initiates a dedicated utility, environment setting for wireless communication based on the variety of items of information stored on the medium is performed and a connection request with the random numbers added thereto is transmitted to the projector. The projector received this connection request replies a permission notification on condition of coincidence in random numbers and the personal computer received this notification automatically starts to transfer the display data.

Abstract: In a motor driving unit controlled by switching to/from PWM control from/to PAM control so that the maximum limit of motor speed can be increased and, at the same time, the unit can be operated at maximum efficiency during steady-state operation, the motor speed is controlled by maintaining the DC voltage command to the converter control circuit constant, but altering the conduction ratio command value to the inverter control circuit when the load to the motor is low, and by maintaining the conduction ratio command to the inverter control circuit constant, but altering the DC voltage command to the converter control circuit. There is a commutating phase control circuit that alters the commutating timing of the coil of the motor, and the motor is so controlled that the efficiency reaches the maximum limit during steady-state operation and the speed reaches the maximum limit during high-speed operation.