Sony Corporation

Aisin Corporation

Shiroki Corporation

Canon Kabushiki Kaisha

Aisin Shiroki Corporation

Takashi Kameyama

Jun Kimura

Takashi Asaida

Fumihiko Sudo

Motohiro Nakasuji

Katsumi Kaneko

Jun Makita

Hirotsugu Terada

Koji Suzuki

Seiji Sato

Kazuyuki Marukawa

Katsumi Karasawa

Kazumasa Yoshikawa

Satoshi Natsume

Hidekazu Suto

Yasuyuki Tomita

Nobuchika Momochi

Shingo Shimazaki

Yoshiaki Satou

Syuichi Akazawa

Yuuji Ohba

A vehicle door frame includes an upper frame having a first end face at a longitudinal end, and a lower external face; and a lower member of a plate form bonded to the upper frame. The lower member includes a second end face facing the first end face, a projection projecting from the second end face in a longitudinal direction below the upper frame, and a third end face located at an upper end of the projection, extending in the longitudinal direction, and facing a lower side of the external face of the upper frame.

Vehicle door frame

A vehicle door frame includes a pillar, a frame molding, and a welded part. The pillar has a first abutting surface and a first outer surface. The upper frame has a second abutting surface and a second outer surface. The frame molding extends along the upper frame to cover an outside of the upper frame in the lateral direction of a vehicle, and has an inner surface facing the first outer surface and the second outer surface with a gap. The welded part is located at a boundary between the first outer surface and the second outer surface, extends along the first abutting surface and the second abutting surface, faces the inner surface, and bonds the pillar and the upper frame together.

A door sash structure according to an embodiment includes a sash, a mirror attachment member, and an outer reinforcement attachment member. The sash is configured to guide a front end edge of a door glass of a vehicle while the door glass moves upward or downward. The mirror attachment member is configured to allow a door mirror to be attached thereto, and is fixed to the sash. The outer reinforcement attachment member is configured to allow at least one of a door outer panel and an outer reinforcement extending along the door glass on a side of the door glass adjacent to an outside of the vehicle to be attached thereto, and is fixed to an outer surface of the mirror attachment member that faces the outside of the vehicle, and separated from the sash.

Door sash structure

A channel according to an embodiment includes a first sidewall, a second sidewall, and an end wall. The first sidewall has a first end portion, a second end portion, and a first locking portion located between the first end portion and the second end portion to lock a glass run. The second sidewall has a third end portion, a fourth end portion, a second locking portion located between the third end portion and the fourth end portion to lock the glass run, and a fixing portion located between the fourth end portion and the second locking portion and configured to be fixed to a door constituting member. The end wall is connected to the first end portion and the third end portion. The fixing portion is located farther away from the first sidewall as the fixing portion is located farther away from the end wall.

Channel and door sash structure

A door sash structure according to an embodiment includes a sash, a mirror attachment member, and an outer reinforcement attachment member. The sash is configured to guide a front end edge of a door glass of a vehicle while the door glass moves upward or downward. The mirror attachment member is configured to allow a door mirror to be attached thereto, and is fixed to the sash. The outer reinforcement attachment member is configured to allow at least one of a door outer panel and an outer reinforcement extending along the door glass on a side adjacent to an outside of the vehicle of the door glass to be attached thereto, and is fixed to an outer surface of the mirror attachment member that faces the outside of the vehicle, and separated from the sash.

A frame molding includes a horizontal portion extending along an upper edge of a door panel and an inclined portion extending obliquely upwards from the horizontal portion to be connected to an upper sash. A decorative garnish is formed from synthetic resin and has an external shape that corresponds to external shapes of the horizontal portion and the inclined portion of the frame molding. The dimensions of the frame molding in the vehicle widthwise direction are reduced. The positioned accuracy between the frame molding and the garnish is enhanced by fixing the garnish to the frame molding that is fixed to the door panel.

Garnish and frame molding apparatus and method of producing a vehicle door

A frame molding for a vehicle door includes a first molding portion which is connected to a sash molding attached to a door sash, a second molding portion which is connected to a belt molding, which is attached to an upper edge of a door panel, and a corner portion at which the first molding portion and the second molding portion meet. The frame molding includes, at the corner portion, a corner engaging portion which is engaged with the door panel to restrict at least upward movement of the corner portion. This makes it possible to improve the stability of support for the frame molding.

Frame molding for vehicle door

An imaging method is provided. The method includes the steps of: amplifying an imaging signal obtained from an image sensor for converting imaging light into an imaging signal; carrying out nonlinear processing on the amplified signal; adding a predetermined plurality of frames of the imaging signal subjected to the nonlinear processing per frame; and carrying out the variable setting of amplification gain of each frame on the basis of a signal accumulation period of each frame in the plurality of frames subjected to the addition.

Imaging apparatus and imaging method capable of imaging at a low frame rate

An imaging method is provided. The imaging method includes the steps of: carrying out a nonlinear correction on an imaging signal obtained from an image sensor where imaging light is converted into an imaging signal; adding a predetermined number of frames of the imaging signal with the nonlinear correction per frame; carrying out control for appropriately setting each of the correction characteristic of the nonlinear correction in the case of carrying out no frame addition and the correction characteristic of the nonlinear correction in the case of carrying out a frame addition; and selectively outputting either the imaging signal with the frame addition or the imaging signal without the frame addition.

Imaging apparatus and imaging method

A camera system is disclosed which allows different types of lens apparatuses to be used in combination with a single image-taking apparatus without requiring changes of focus control signals on the side of the image-taking apparatus depending on the type of a lens apparatus mounted on the image-taking apparatus. The camera system includes an image-taking apparatus which outputs a focus control signal and a lens apparatus which includes a focus lens and is mounted on the image-taking apparatus. The lens apparatus includes a controller which produces a drive signal according to a type of focus of the lens apparatus based on the focus control signal and controls drive of the focus lens based on the drive signal.

Camera system and lens apparatus

An image shooting unitgenerates an image signal DVb having an image shooting frame rate. A main line image processing blockperforms frame addition on the image signal DVb having the image shooting frame rate, and generates a main line image signal having a desired output frame rate. Based on the image signal DVb, a monitor image processing blockgenerates a monitor image signal having a frame rate independent of the frame rate of the main line image signal. Since the frame rate of the main line image signal and that of the monitor image signal are independent of each other, shooting an image while varying the frame rate of the main line image signal allows a monitor image at an image shooting time to be displayed at a predetermined frame rate using the monitor image signal DVr.

Imaging apparatus and imaging method having a monitor image frame rate independent of a main line image frame rate

An image signal generator generates an imaging signal having a frame rate that is controlled to be variable. A frame rate converter generates a monitor image signal. Upon receiving communication information from an external source, a controller controls the operations of the image signal generator and the frame rate converter on the basis of the communication information. When an instruction to specify the frame rate of the monitor image signal is given from a user interface, the controller controls the frame rate converter to generate a monitor image signal having a specified frame rate by giving priority to this instruction over the communication information.

Image pickup apparatus and control method therefor

A camera system () is provided which includes an interchangeable lens () including a group of lenses (L, L, L, L) for imaging an object, and a camera () to which the interchangeable lens () is to be installed. The camera () includes a correction angle information calculating means () for calculating correction angle information as to the posture of the camera (), and a first sending means () for sending calculated correction angle information to the interchangeable lens (). The interchangeable lens () includes the lens (L) which optically corrects angular shift on the basis of the correction angle information sent by the first sending means ().

Camera system, camera and interchangeable lens

An image shooting unitgenerates an image signal Spa having an image shooting frame rate. A frame addition unitperforms frame addition on the image signal DVb having the image shooting frame rate. Control unitcontrols drive unitand the frame addition unitbased on a frame rate setting signal RSF from operation unit, and controls a variation of the image shooting frame rate in image shooting unitand/or a switch of the number of additive frames in the frame addition unit, thus allowing an image signal DVj having a desired frame rate to be output from the frame addition unit. Thus, increasing the additive frame in number even without decreasing the image shooting frame rate at a low-speed shooting of the image allows such an image signal DVj shot at the low speed to be obtained.

The invention provides a convenient way of generating image signals on a progressive scanning basis. Multiple image pickup devices used for an interlaced scanning drive and generate chrominance signal DGi on the interlaced scanning basis with an interlace field and chrominance signals DRi and DBi on the interlaced scanning basis with opposite interlace field. Scanning converter receives the chrominance signal Dgi, DRi and Dbi. The scanning converter then performs an interpolation based on the chrominance signals DGi, DRi, and DBi to generate corresponding chrominance signals DGp (DGp-E, DGp-O), DRp (DRp-E, DRp-O), and DBp (DBp-E, DBp-O) on a progressive scanning basis. Signal processor receives the resultant chrominance signals DGp, DRp, and DBp. The scanning converter sums the chrominance signals DGp, DRp, and DBp belonging to a predetermined number of frames to obtain a new set of chrominance signals.

Growing community of inventors

Kanagawa, Japan

Takashi Kameyama