Abstract: A directionality control system includes: a camera; a microphone provided as a separate body from the camera; a display that displays video data captured by the camera; and a processor that computes a sound collection direction, which is directed from the microphone toward a sound position corresponding to a designated position in the video data. The processor computes the sound collection direction by using parameters including: a first height of the camera from a reference surface, a second height of the microphone from the reference surface, a third height of a computation reference point from the reference surface, the computation reference point being positioned in the sound collection direction at a position different from the sound position, a direction which is directed from the camera toward the sound position, and a fourth height of the sound position from the reference surface.

Abstract: A directionality control system includes: a camera; a microphone provided as a separate body from the camera; a display that displays video data captured by the camera; and a processor that computes a sound collection direction, which is directed from the microphone toward a sound position corresponding to a designated position in the video data. The processor computes the sound collection direction by using parameters including: a first height of the camera from a reference surface, a second height of the microphone from the reference surface, a third height of a computation reference point from the reference surface, the computation reference point being positioned in the sound collection direction at a position different from the sound position, a direction which is directed from the camera toward the sound position, and a fourth height of the sound position from the reference surface.

Abstract: A sound and video processing system includes: a display, having a rectangular display region, that displays a video image in a circular video-image display region smaller than the rectangular display region; and a sound collector that collects sound. A processor generates emphasized audio data, in which sound is emphasized in at least one direction from a position of the sound collector toward at least one position corresponding to at least one designated location in the video image. In response to receiving designation outside the video-image display region, the processor displays a state display area or an adjustment operation area for the sound to be output from the speaker in a rectangular region which has a diagonal line extending from one of four corners of the rectangular display region to a center of the video-image display region and intersecting with a boundary line of the video-image display region.

Abstract: A sound and video processing system includes: a display that displays a video image captured by the camera; a sound collector that collects sound; an input device that receives designation of at least one designated location in the video image displayed on the display. A processor generates emphasized audio data, in which sound is emphasized in at least one direction from a position of the sound collector toward at least one position corresponding to the at least one designated location. The processor displays at least one identification shape at the at least one designated location. In response to receiving re-designation of one of the at least one designated location by the input device, the processor outputs audio data in which emphasis of sound stops in a direction from the position of the sound collector toward the position corresponding to the re-designated location.

Abstract: Sound collection directionality is formed toward a location corresponding to a position designated in a video of a predetermined region which is imaged by a camera apparatus with a microphone array apparatus as a reference, and audio data is collected with high accuracy. In a directionality control system (10), a signal processing unit (33) derives a sound collection direction (?MAh,?MAv) which is directed from an installation position of a microphone array apparatus (2) toward a sound position corresponding to a position designated in video data on a screen of the display device (36) in response to a user's designation of any position in the video data displayed on the screen. The signal processing unit (33) forms sound collection directionality of audio data in the derived sound collection direction (?MAh,?MAv).

Abstract: A recorder receives designation of a video which is desired to be reproduced from a user. If designation of one or more designated locations where sound is emphasized on a screen of a display which displays the video is received by the recorder from the user via an operation unit during reproduction or temporary stopping of the video, a signal processing unit performs an emphasis process on audio data, that is, the signal processing unit emphasizes audio data in directions directed toward positions corresponding to the designated locations from a microphone array by using audio data recorded in the recorder. A reproducing device reproduces the emphasis-processed audio data and video data in synchronization with each other.

Abstract: A directivity control apparatus controls a directivity of a sound collected by a sound collecting unit including a plurality of microphones. A beam forming unit forms a beam in a direction from the sound collecting unit toward a sound source corresponding to a position designated in an image on a display unit. A magnification setting unit sets a magnification for magnifying or demagnifying the image in the display according to an input. The beam forming unit also changes a size of the formed beam in accordance with the magnification set by the magnification setting unit.

Abstract: Sound collection directionality is formed toward a location corresponding to a position designated in a video of a predetermined region which is imaged by a camera apparatus with a microphone array apparatus as a reference, and audio data is collected with high accuracy. In a directionality control system (10), a signal processing unit (33) derives a sound collection direction (?MAh,?MAv) which is directed from an installation position of a microphone array apparatus (2) toward a sound position corresponding to a position designated in video data on a screen of the display device (36) in response to a user's designation of any position in the video data displayed on the screen. The signal processing unit (33) forms sound collection directionality of audio data in the derived sound collection direction (?MAh,?MAv).

Abstract: A recorder receives designation of a video which is desired to be reproduced from a user. If designation of one or more designated locations where sound is emphasized on a screen of a display which displays the video is received by the recorder from the user via an operation unit during reproduction or temporary stopping of the video, a signal processing unit performs an emphasis process on audio data, that is, the signal processing unit emphasizes audio data in directions directed toward positions corresponding to the designated locations from a microphone array by using audio data recorded in the recorder. A reproducing device reproduces the emphasis-processed audio data and video data in synchronization with each other.

Abstract: A directivity control apparatus controls a directivity of a sound collected by a sound collecting unit including a plurality of microphones. A beam forming unit forms a beam in a direction from the sound collecting unit toward a sound source corresponding to a position designated in an image on a display unit. A magnification setting unit sets a magnification for magnifying or demagnifying the image in the display according to an input. The beam forming unit also changes a size of the formed beam in accordance with the magnification set by the magnification setting unit.

Abstract: A touch screen device includes a surface board on which a touch surface is provided. A plurality of first electrodes, extending parallel to each other, are provided on a surface of the surface board opposite to the touch surface. A plurality of second electrodes, extending parallel to each other, are provided such that the first electrodes and the second electrodes are arranged in a grid pattern. First and second protectors respectively protect the first electrodes and the second electrodes. The first protector is provided on a portion of the surface of the surface board on which the first electrodes are provided such that a space is provided between the first electrodes.

Abstract: In a touch table system having a touch table apparatus provided with a touch panel main body in a tabletop and a PC connected to the touch table apparatus, the touch table apparatus has a touch position detector detecting a touch position within a touch detection area. A touch position converter converts a coordinate of a touch position into a coordinate of a screen area of the PC, the touch position being obtained in an operation is set for each user within the touch detection area.

Abstract: A touch screen device includes a screen main body comprising a plurality of transmitting electrodes and a plurality of receiving electrodes and disposed in front of a plasma display panel; a transmitter sequentially selecting the transmitting electrodes and applying a drive signal to the selected transmitting electrodes; a receiver sequentially selecting the receiving electrodes, receiving a response signal output from each of the receiving electrodes in response to the drive signal, and outputting detection data at each electrode intersection; a discharge detector detecting discharge of each of the scanning electrodes of the plasma display panel; and a controller that obtains a touch position based on detection data of the discharge detector at each electrode intersection acquired from the response signals from the receiving electrodes positioned distant from the discharging scanning electrodes.

Abstract: A touch screen device includes a panel disposed in a front surface of a plasma display panel and having a plurality of transmitting electrodes and receiving electrodes intersecting in a grid pattern; a transmitter that applies a driving signal to the transmitting electrodes; and a receiver receiving a response signal and outputs detection data for each intersection between electrodes, the response signal being output from the receiving electrodes in response to the driving signal applied to the transmitting electrodes. A controller obtains a touch position based on detection data for each intersection, the data being output from the receiver; and a maintenance discharge detector detects a maintenance discharge period of the plasma display panel. The controller, based on a detection result of the maintenance discharge detector, obtains the touch position based on the detection data for each intersection during a period excluding the maintenance discharge period.

Abstract: A touch screen device includes a surface board on which a touch surface is provided. A plurality of first electrodes, extending parallel to each other, are provided on a surface of the surface board opposite to the touch surface. A plurality of second electrodes, extending parallel to each other, are provided such that the first electrodes and the second electrodes are arranged in a grid pattern. First and second protectors respectively protect the first electrodes and the second electrodes. The first protector is provided on a portion of the surface of the surface board on which the first electrodes are provided such that a space is provided between the first electrodes.

Abstract: An ink-jet recording device according to the present invention includes: a paper supply tray arranged inward of a predetermined face of a main body to supply recording sheets; a paper display tray arranged inward of the same face as the paper supply tray to receive recording sheets discharged after recording; an ink cartridge loading unit, which is arranged inward of the same face as the paper supply tray, and into which an ink cartridge containing ink used for recording is loaded detachably; and a controller which disables removal of the ink cartridge during a removal inhibited period.

Abstract: An ink-jet recording device according to the present invention includes: a paper supply tray arranged inward of a predetermined face of a main body to supply recording sheets; a paper display tray arranged inward of the same face as the paper supply tray to receive recording sheets discharged after recording; an ink cartridge loading unit, which is arranged inward of the same face as the paper supply tray, and into which an ink cartridge containing ink used for recording is loaded detachably; and a controller which disables removal of the ink cartridge during a removal inhibited period.

Abstract: An inkjet recording apparatus includes (a) a carriage, (b) a recording head mounted to the carriage, (c) a transferring machine for transferring a recording medium, (d) a driving machine for operating the transferring machine, (e) a driving-force-transmitting-machine disposed between the transferring machine and the driving machine, and for transmitting the driving force of the driving machine, (f) a rotary detector mounted to a rotating shaft of any one of rotating members constituting the driving-force-transmitting-machine, and disposed within the height of the driving-force-transmitting-machine, and (g) a detecting sensor for detecting a rotating angle of the rotary detector. In this structure, even if other members hit an element of the driving-force-transmitting-machine, they never hit the rotary detector. Thus the rotary detector is prevented from being damaged or deformed due to shocks.

Abstract: The present invention provides an ink jet recording apparatus in which many components in a carriage-driving system are unitized into a carriage frame. The apparatus comprises a carriage loaded with a recording head for discharging ink from a plurality of nozzles, a carriage-driving device for driving the carriage, a bendable electric wire, and a carriage frame. The electric wire is bent from an apparatus body and mounted to the recording head and passes a printing signal to the recording head. The carriage frame arranges the carriage, the carriage-driving device, the recording head, and the electric wire at predetermined positions to form a unit. The carriage can reciprocate in parallel with the main scan direction along the longitudinal direction of the carriage frame. As a result, the recording head can be easily replaced, and the apparatus can be maintained without complicated work.

Abstract: The present invention provides an ink jet recording apparatus in which many components in a carriage-driving system are unitized into a carriage frame. The apparatus comprises a carriage loaded with a recording head for discharging ink from a plurality of nozzles, a carriage-driving device for driving the carriage, a bendable electric wire, and a carriage frame. The electric wire is bent from an apparatus body and mounted to the recording head and passes a printing signal to the recording head. The carriage frame arranges the carriage, the carriage-driving device, the recording head, and the electric wire at predetermined positions to form a unit. The carriage can reciprocate in parallel with the main scan direction along the longitudinal direction of the carriage frame. As a result, the recording head can be easily replaced, and the apparatus can be maintained without complicated work.