Abstract: An image pickup apparatus capable of performing proper image evaluation in photographing a moving image by changing the exposure condition. An image pickup unit picks up an image of an object and a driving unit drives a focus lens in an optical axis direction. A control circuit controls a focus state of the object by causing the driving unit to move the focus lens in the optical axis direction. A focus evaluation value is acquired from each image. The control circuit causes the image pickup unit to pick up images of a multistage exposure image group by changing exposure time, selects an image according to exposure time, updates a direction of driving the focus lens using the focus evaluation value acquired from the selected image, and causes the driving unit to move the focus lens in the updated driving direction.

Abstract: Electromagnetic actuators for digital cameras, in particular miniature cell-phone and tablet cameras, include an electromagnet with a first elongated ferromagnetic member surrounded coaxially in part by a conductive coil along a first longitudinal axis, and a elongated second ferromagnetic member with a second longitudinal axis. The first and second ferromagnetic members have respective first and second operative surfaces and are aligned such that their longitudinal axes are parallel and such that respective operative surfaces overlap each other across a gap. The two members are mechanically coupled to respective frames. A frame hinge connects the frames and enables a relative tilt motion between the ferromagnetic members when current passes through the coil. The tilt motion is convertible into a linear displacement along an optical axis of an optical element coupled to the actuator. Two actuators can be combined into an assembly capable of providing double-axis tilt.

Abstract: An apparatus to acquire information about light-field data includes: a beam splitter configured to split light, through a lens unit which is connected to the apparatus, from an object into a first light beam and a second light beam; an image sensor configured to detect the first light beam to form an image of the object; and a light-field sensor, including a lenslet array and a detecting unit to detect the second light beam through the lenslet array, configured to acquire information about the light-field data, the lenslet array including a plurality of lenslets, wherein a first position where the detecting unit is provided is conjugate to a second position of a pupil of the lens unit.

Abstract: An electronic device includes a shell, an image capturing device, a sliding key, a driving element, and a sliding pin. The shell defines a receiving space, a number of positioning grooves, and a through hole communicating with the receiving space. The image capturing device is received in the receiving space. The image capturing device includes a supporting frame rotatably connected with the shell and defining a matching hole. The sliding key includes an operation portion and a connection portion. The connection portion is received and slidable in the through hole. The driving element includes a main portion connected with the connection portion, at least one driving arm, and a tail portion. The tail portion includes a positioning protrusion received in one positioning groove. The sliding pin engages with the at least one driving arm and is slidable in the matching hole for driving the supporting frame to rotate.

Abstract: A pan tilt zoom (PTZ) camera system implements a disc valve system to enhance the cooling of electronics. The disc valve system includes a static camera base and a rotating camera pan bearing. The static camera base has static base vent slots arranged along the perimeter of the static camera base. The rotating camera pan bearing includes at least one pan bearing vent slot that aligns with the static base vent slots. During rotation of the rotating camera pan bearing, the at least one pan bearing vent slot aligns with the static base vent slots enabling movement of air over electronics of the (PTZ) camera system.

Abstract: An imaging apparatus includes a pentaprism and outer covering members. Among the photographing light flux incident from a photographing optical system, light reflected by a rotary mirror is further reflected by the reflection surface of the pentaprism to thereby reach an ocular lens. A wireless substrate on which an antenna section is mounted is arranged between the pentaprism and a front outer cover. The substrate fixing member fixes the wireless substrate and is attached to a pentaprism fixing member so as to be electrically connected to the ground section of the imaging apparatus. The ground section of the wireless substrate is connected to the substrate fixing member at a position facing the antenna section with the optical axis of the eyepiece optical system therebetween. The electrical resistivity of a region facing the antenna section in the front outer cover is set relatively higher than the periphery of the region.

Abstract: A camera having an internal antenna includes a metal body portion forming an external surface of the camera, excluding one side surface. A non-metallic injection grip portion comprises the one side surface and is fastened to the metal body portion. An antenna portion having at least one radiator is disposed within the injection grip portion. The configuration can allow for a more efficient arrangement of radiators and other components, reduce interference between the antenna and metal components of the camera, and can exhibit an aesthetic appearance.

Abstract: An apparatus for a video camera facilitates the use of the camera by an operator. A shoulder mount may comprise one or more pads that may be movably attached to a mounting or reinforcing plate and coupled to a mechanism that facilitates the rotation, translation and/or tilting of the pads. One or more releases may be positioned to permit an operator to actuate the mechanisms and to unlock and reposition the pads with respect to the camera body. A tripod configuration may be defined in which all pads are fully confined within the volume of a recess of the camera body, thereby permitting attachment of a tripod or other mechanical mount.

Abstract: A personalized television viewing system includes a head-end subsystem. The head-end subsystem includes a personality server configured to store a user preference regarding a television viewing format and a rendering server configured to provide digital media content in the television format of the user's preference. The viewing system further includes a client-end subsystem. The client-end subsystem includes a client server configured to electronically communicate with the head-end subsystem and provide the personality server with the user preference regarding the television viewing format.

Abstract: A system and method for converting a content file from a first format to a second format is disclosed. The system comprises a parser, a table generator, a determining module and a packaging module. The parser parses data in the content file with the first format for one or more file headers. The table generator generates one or more content tables based at least in part on the one or more file headers. The determining module determines one or more samples in the content file with the first format based at least in part on the one or more content tables. The packaging module generates one or more tags based at least in part on the one or more samples and converts the content file from the first format to the second format based at least in part on the one or more tags.

Abstract: A video processing device includes a rate controller coupled to receive non-real time audio/video (A/V) data and buffer state feedback data from an input/output (I/O) device. The rate controller generates rate controlled non-real time A/V data from the non-real time A/V data and in response to the buffer state feedback data. A multiplexor multiplexes the rate controlled non-real time A/V data with real-time A/V data to generates multiplexed A/V data for input to the I/O device.

Abstract: Disclosed are a method and an apparatus for a scalable broadcast. The method includes scalably dividing a broadcast frequency band into segments, scalably dividing a video image into segments, and linking the segment of the broadcast frequency band to the scalably divided video image, and broadcasting the linked segments to at least one receiving apparatus.

Abstract: A method for de-interlacing interlaced video includes receiving a first video field and a second video field, generating a first video frame by inserting the first video field in the first video frame on every second line of the first video frame, and by inserting a first synthesized video field on the lines of the first video frame not populated by the first video field. The video data of the first synthesized video field is based on video data of the first and second video fields. A second video frame is generated by inserting the second video field in the first video frame on every second line of the second video frame and by inserting a second synthesized video field on the lines of the second video frame not populated by the second video field. Two de-interlaced video frames are output for every received interlaced video frame.

Abstract: In one embodiment, an interface may include various mechanisms to handle incoming clock and data signals. More specifically, the interface includes a first multiplexer to receive a first data signal via a serial peripheral interface (SPI) bus coupled to a first pin and a second multiplexer to receive a first clock signal via the SPI bus coupled to a second pin of the first IC and a second clock signal via an inter-integrated circuit (I2C) bus coupled to a third pin. In addition, the interface may include a decoder to receive the second clock signal and a second data signal via the I2C bus coupled to a fourth pin.

Abstract: A system, computer-readable storage medium storing at least one program, and a computer-implemented method for augmenting capabilities of a host device is presented. A first application on the host device is executed, where the first application is configured to execute on a second device and is configured to use a capability that is available on the second device, and where the capability is not included in the host device. A request is received from the first application to use the capability that is available the second device, where the first application does not have knowledge of the capabilities of the second device. A connection is established to the second device through at least one network. Communications are facilitated between the first application and the second device though the at least one network to provide the capability that is available on the second device to the first application.

Abstract: A communication apparatus equipped with switchable antenna mechanism is provided, where the communication apparatus includes at least a portion of a portable electronic device, which includes a plurality of wireless communication functions respectively corresponding to different communication standards, and the wireless communication functions include a mobile phone function and at least one other wireless communication function. The communication apparatus includes: an antenna; a processing circuit; a plurality of processing modules arranged to provide the portable electronic device with a plurality of functions, respectively, where the functions include at least a portion of the wireless communication functions; and a switching unit. It is an advantage that, by utilizing the switching unit, different portions of the communication apparatus can share the antenna to achieve the best beneficial result through the limited area of a printed circuit board (PCB).

Abstract: Methods and apparatuses for building and reconfiguring audiovisual equipment in a video production system. A wiring cradle may be installed in the video production system and one or more electrical or optical connections may be established between the wiring cradle and another element of the video production system. Electrical connections may be established through the wiring cradle between a video processing component mounted in the wiring cradle and at least one other component of the video production system according to an interconnection configuration for the video production system. The wiring cradle physically secures the wiring cradle to a rack or enclosure. Electrical connection may be established by automatically connecting inputs or outputs based on an interconnection configuration maintained in non-volatile storage provided in the wiring cradle.

Abstract: In a first aspect, the present invention provides methods for creating video signals including (a) receiving an input video signal including an input red component, an input green component, and an input blue component; (b) determining (i) that a magnitude of the input red component is greater than a magnitude of the input green component and (ii) a differential between the magnitude of the input red component and the magnitude of the input green component; and (c) sending an output video signal including an output red component, an output green component, and an output blue component, where at least one of the following is true: (i) the output red component is decreased by a fractional amount relative to the input red component based on the differential; and/or (ii) the output green component is increased by a fractional amount relative to the input green component based on the differential, and the output blue component is increased by a fractional amount relative to the input blue component based on the di

Abstract: A current steering Digital-to-Analog Converter (DAC), a video adapter including a current steering DAC, and a video circuit including a current steering DAC are described. In one embodiment, a current steering DAC includes multiple DAC unit cells that are connected in parallel with each other. Each of the DAC unit cells includes three output switches connected to a current source. The three output switches are configured to form two differential pairs of switches that are placed in parallel with each other and share a negative output switch of the three output switches. The current steering DAC also includes at least one switch control circuit configured to receive digital input data and to control the three output switches of each of the DAC unit cells to generate differential analog output data based on the digital input data and a current from the current source. Other embodiments are also described.

Abstract: A video processing device includes a substrate. A plurality of ring oscillators generate a corresponding plurality of ring oscillator outputs. A control circuit generates power adjustment signals for adjusting at least one power supply voltage of the video processing device, based on the plurality of oscillator outputs.

Abstract: According to one embodiment, an image processing apparatus includes: an enlarged-image generation module configured to generate enlarged image information that is enlarged with a predetermined magnification ratio from input image information; a depth characteristic calculator configured to calculate, from the input image information, a depth characteristic amount indicating a change level of depth of field for each a plurality of areas comprised in the input image information; and a generation module configured to compose image information comprising a predetermined high-frequency component onto the enlarged image information, based on the depth characteristic amount calculated by the depth characteristic calculator to generate output image information.

Abstract: According to one embodiment, a television receiver includes a display, a casing, and a driver board of the display. The display is with a bendable sheet-like shape and includes a front face at which an image is viewable and a rear face opposite the front face. The casing includes: a first wall configured to support the display and cover the rear face, a second wall positioned at a side of the first wall opposite the display and positioned apart from the first wall, and a third wall extending between a periphery of the first wall and a periphery of the second wall. The driver board is provided to the first wall at a side opposite the display. The driver board is electrically connected to the display via a flat cable.

Abstract: A method for controlling a multimedia player, the method comprising: detecting whether at least one user enters at least one predetermined region near the multimedia player, and further detecting whether the user enters the predetermined region multiple times; and when it is detected that the user enters the predetermined region multiple times, triggering the multimedia player to play a second portion of a program, allowing the user to view the second portion of the program, wherein a first portion of the program is played when the user enters the predetermined region at a previous time, and a second start time index of the second portion is different from a first start time index of the first portion.

Abstract: A system for projecting content onto a shaped screen and highlighting particular portions of the content. The system includes a projector configured for projecting content having a particular shape and a rear projection screen for receiving and displaying the projected content. The rear projection screen has a shape substantially conforming to the particular shape of the content. The system is configured to increase or maximize an illumination of the projected content in a particular portion of the rear projection screen compared with the projected content in other portions of the screen. The increased illumination can be used to highlight the projected content in the particular portion for digital merchandising or other uses.

Abstract: The present disclosure provides a liquid crystal display (LCD) device and a mold. The LCD device includes an LCD module. The LCD module includes a front frame, a middle frame, a backplane, an LCD panel, and a backlight module, the front frame acts as a front shell of the LCD device, and the backplane acts as a back shell of the LCD device. The from ham is a separate structure and comprises a plurality of member units, and the member units are strip-shaped or L-shaped. In the present disclosure, the front shell and the back shell, as two main components, can be directly removed, thereby reducing component types.

Abstract: A space positioning method includes: determining a plurality of distances between an object location of an object in a space and a plurality of different predetermined locations in the space by utilizing a plurality of liquid crystal (LC) lens cameras, respectively, wherein each LC lens camera is located at a predetermined location, and determines a distance between the predetermined location in the space and the object location of the object in the space; and determining a position in space of the object relative to the predetermined locations according to the predetermined locations and the distances.

Abstract: A handheld electronic device has a display side and a back side opposite to the display side. The handheld electronic device includes a case, a host system, an optical device, an opening region, and a liquid crystal light valve. The host system and the optical device are disposed in the case, and the optical device is electrically coupled to the host system. The opening region is located on the display side or the back side to expose the optical device. The liquid crystal light valve is disposed in the opening region and is electrically coupled to the host system to control the luminous flux passing through the opening region.

Abstract: A liquid crystal display 50 includes: a light source 10; a liquid crystal display panel 213; a wire-grid polarization plate 211, 214 located on at least one of a light-incident side and a light-emission side of the liquid crystal display panel 213, and including a base plate 101 and a plurality of wires 100 arranged in stripes on the base plate 1; a projection lens 23; a cooling part 25 which supplies wind to the liquid crystal display panel 213 and the polarization plate 211, 214 to cool them; and a covering wall 102 which covers end faces of the plurality of wires 100 and ends of a plurality of grooves 108 formed between the plurality of wires 100, at a windward side of the polarization plate 211, 214 in a flow direction of the wind supplied from the cooling part 25.

Abstract: A projector is provided with an image forming device, a light path switching element, a polarization control element, and a polarization plate. The image forming device emits first image light and second image light. The light path switching element shifts a light path of the first image light and a light path of the second image light from each other. The polarization control element controls a polarization direction of the first image light to have a first polarization direction in a first display period, controls polarization directions of the first image light and the second image light to have a second polarization direction different from the first polarization direction in a transition period, and controls the polarization direction of the second image light to have the first polarization direction in a second display period. The polarization plate is disposed on the light exit side of the polarization control element.

Abstract: The present invention relates to a sectional dynamic-driving backlight module and a head-up display device thereof. The sectional dynamic-driving backlight module comprises an optical-directional lens unit and an optical-homogenizing unit. The optical-directional lens unit is provided for converging the light beams emitted by the light source assemblies in the backlight module into light beams with a smaller divergent angle, and the optical-homogenizing unit is used for further homogenizing the light beams, so as to make all display regions of the LCD show a uniform illumination. Therefore, all images showed on an eyebox of the driver are distinct. Besides, each of the light source assemblies consist a red-light LED chip, a green-light LED chip, a blue-light LED chip, and a white-light LED chip, and these LED chips may be controlled by a controlling PCB for lighting respectively or simultaneously, so as to achieve a sectional dynamic display.

Abstract: An input device includes an input member in which a pair of conductive substrates including an insulating substrate and a transparent conductive film that is provided on the insulating substrate and has a mesh-shaped member made of a conductive metal in an insulating transparent body are provided so as to be laminated in a thickness direction, and a detection means for being electrically connected to the transparent conductive film, and detecting an input signal. Here, a conductive portion in which the mesh-shaped member is arranged in the transparent substrate and an insulating portion in which at least one part of the mesh-shaped member in the transparent substrate is removed are provided on the transparent conductive film.

Abstract: A touch panel, having a touch sensing region and a peripheral region adjacent to at least one edge of the touch sensing region, includes a cover substrate and a decoration border. The cover substrate has a touch surface and an inner surface opposite to the touch surface. The decoration border is disposed on the inner surface of the cover substrate within the peripheral region. The decoration border includes a first non-black decoration layer and a second non-black decoration layer. The second non-black decoration layer is disposed on the first decoration layer. The first non-black decoration layer is disposed between the cover substrate and the second non-black decoration layer. The second non-black decoration layer covers the first non-black decoration layer along a vertical projective direction. A pattern size of the second non-black decoration layer is larger than a pattern size of the first non-black decoration layer.

Abstract: An embodiment touch-control screen includes a metal frame, a liquid crystal display embedded into the metal frame, and a touch-control panel covering the liquid crystal display, where the touch-control panel includes a transparent conductive shield layer, and the transparent conductive shield layer is electrically connected to the metal frame. An embodiment mobile communications device includes the touch-control screen.

Abstract: The disclosure of the present invention discloses a touch display panel. The touch display panel comprises a color filter substrate, an array substrate, a liquid crystal layer and a touch sensing film positioned at a side of the color filter substrate which is away from the liquid crystal layer, wherein the color filter substrate comprises a substrate and a black matrix provided with a plurality of opening areas which are in array distribution; the touch sensing film comprises a substrate, one side of the substrate is provided with a plurality of first electrodes, the other side surface of the substrate is provided with a plurality of second electrodes, the projections of the first electrodes and the second electrodes on the color filter substrate are intersected with each other, the first electrodes are color filter electrodes, and the projections on the color filter substrate are opposite to the opening areas.

Abstract: To provide a thinned display device with a touch sensor and to provide a highly reliable display device. A sensor layer including an electrode of a touch sensor is formed in advance over a support substrate which is different from a substrate which forms a display device so that the sensor layer can be separated, the sensor layer is separated from the support substrate, and the separated sensor layer is attached to one surface of a substrate the other surface of which is provided with a component such as a color filter, with a bonding layer interposed therebetween.

Abstract: Disclosed are a liquid crystal panel, a liquid crystal display and a method for manufacturing the same.

Abstract: Disclosed are a display device and a driving method thereof in 2D/3D display field.

Abstract: There are provided a liquid crystal grating, a manufacturing method thereof and a 3D display device. The manufacturing method comprises: producing a conductive layer (808) and an alignment mark (812) on a top surface of an upper surface (801) in accordance with a first preset pattern; producing a first insulating layer (809), a touch control electrode layer (810) and a second insulating layer (811) on the conductive layer (808) in sequence; producing a plane electrode (805) which is grounded on a bottom surface of the upper substrate (801) which is opposite to the top surface; cell-assembling the upper substrate (801) and a lower substrate (802) in accordance with the alignment mark (812) so as to form the liquid crystal grating, wherein there are strip-like electrodes (806) on a top surface of the lower substrate (802), and the bottom surface of the upper substrate (801) with the plane electrode (805) formed faces the top surface of the lower substrate (801).

Abstract: One embodiment of the present invention provides a conductive oxide film having high conductivity and high transmittance of visible light. The conductive oxide film having high conductivity and high transmittance of visible light can be obtained by forming a conductive oxide film at a high substrate temperature in the film formation and subjecting the conductive oxide film to nitrogen annealing treatment. The conductive oxide film has a crystal structure in which c-axes are aligned in a direction perpendicular to a surface of the film.

Abstract: A touch display including a liquid crystal display having a surface displaying images and a capacitive touch-sensitive panel superposed on a surface of the liquid crystal display and enabling an input operation in reaction to the displayed image; wherein being arranged on the liquid crystal display in order from the surface of the liquid crystal display toward an outer surface of the liquid crystal display, a second quarter-wave plate converting a light passing through into a circular polarization by shifting phase, the capacitive touch-sensitive panel, a first quarter-wave plate having a same orientation to the second quarter-wave plate, a polarizer converting the light passing through into a linear polarization, a decorated sheet protecting an upper surface of the capacitive touch-sensitive panel, and an antireflection layer preventing a surface-reflection of outside light, in order to obtain the antireflection effect while keeping costs low.

Abstract: A conductive substrate comprises a substrate, a plurality of conductive patterns, and a plurality of optical compensation patterns. The conductive patterns extend along a first direction and are sequentially disposed on the substrate along a second direction. The optical compensation patterns are staggered from the conductive patterns along the second direction on the substrate. An edge of at least one of the conductive patterns extending along the first direction has a plurality of conductive protrusions, and an edge of at least one of the optical compensation patterns extending along the first direction has a plurality of optical compensation protrusions. A touch display device is also disclosed.

Abstract: Provided is a cover structure used for a touch panel, including: a substrate and a masking layer buried in the substrate. The region where the masking layer is located defines a non-visible region of the touch panel. In addition, a method for fabricating the cover structure and a touch panel including the cover structure are also provided.

Abstract: An exemplary embodiment of the present disclosure provides a touch screen structure used in a touch panel. The touch screen structure comprises a protection cover and at least one color changeable decoration layer. The color changeable decoration layer is made of thermochromic material or photochromic material, located at a side region of the lower surface of the protection cover, and the region at which the color changeable decoration layer is located defines a non-visible region of the touch panel.

Abstract: A touch panel includes a substrate, a first conductive pattern, a first photoresist layer, a second conductive pattern, and a second photoresist layer. The first conductive pattern is disposed on the substrate, and the first conductive pattern includes a plurality of first axis electrodes. The first photoresist layer is disposed between the substrate and the first conductive pattern. The first photoresist layer completely covers the first conductive layer along a direction perpendicular to the substrate. The second conductive pattern is disposed on the substrate, and the second conductive pattern includes a plurality of second axis electrodes. The second axis electrodes are electrically isolated from the first axis electrodes. The second photoresist layer is disposed between the substrate and the second conductive pattern. The second photoresist layer completely covers the second conductive layer along the direction perpendicular to the substrate.

Abstract: The present invention pertains to a counductive sheet and a touch panel. A first conductive pattern and a second conductive pattern are both configured from the combination of a plurality of first lattices and a plurality of second lattices having a size that is larger than that of the first lattices. Of the first conductive pattern, the portion facing the second conductive pattern is configured from a plurality of second lattices, of the second conductive pattern, the portion facing the first conductive pattern is configured from a plurality of second lattices, and when seen from the top surface, the portions at which the first conductive pattern and the second conductive pattern are facing have a form that combines a plurality of first lattices.

Abstract: This conductive sheet and touch panel have a plurality of first conductive patterns arrayed in the x-direction. The first conductive patterns have: a band-shaped section extending in the y-direction; and a plurality of jutting sections that jut from the band-shaped section in both directions and are arrayed at a predetermined spacing along the y-direction. The width of the band-shaped section is at least three times the width of the jutting sections. Also, the first conductive pattern is configured by combining: a plurality of first lattices comprising fine metal wires; and a plurality of second lattices comprising fine metal wires that are larger in size than those of the first lattices. At least the jutting sections are configured from a plurality of first lattices.

Abstract: This invention discloses optical modules, and eyewear using them for performing viewing function(s) including viewing a shutter-based 3D display, viewing a polarization-based 3D display, emulating the Pulfrich effect, emulating a pair of pinhole glasses and emulating a pair of sunglasses.

Abstract: Electro-optical glare protection device for protective glasses, protective helmets or protective masks comprising at least two optical sensors, which are equipped to detect the luminance of an object field and which have a different characteristic for the angle-dependent relative sensitivity (S0). In particular, at least a first sensor comprises a first photodiode (1) having a narrow detection angle ?1<45° and a second sensor comprises a second photodiode (2) with a wide detection angle ?2>45°. An electronic circuitry for controlling the optical transmittance of a liquid crystal cell comprises differential circuit which generates a differential current (i?) from photocurrents (i1, i2) generated by the respective photodiocies (1, 2), which differential current (i?) serves as a control signal for controlling the liquid crystal cell.

Abstract: A three-dimensional (3D) image display apparatus includes a display panel and a 3D image optical structure. The display panel has pixels arranged in an array and the pixels have a first region and a second region disposed adjacent to each other. The 3D image optical structure includes a plurality of first optical units disposed along a first direction. Each first optical unit has at least one first portion corresponding to the first region and at least one second portion corresponding to the second region. The first portion has a first curvature radius and a plurality of corresponding first circle centers, and the second portion has a second curvature radius and a plurality of corresponding second circle centers. The first curvature radius is different from the second curvature radius, and the first circle centers are not overlapped with the second circle centers in the vertical projection direction.

Abstract: A liquid crystal lens panel includes a first substrate, a second substrate, and a liquid crystal layer. The first substrate includes a first base substrate, a lens common electrode disposed on the first base substrate, and a first alignment layer disposed on the lens common electrode, the first alignment layer including a first alignment direction. The second substrate includes a second base substrate opposite to the first base substrate, a plurality of lens electrodes that extend in a lens axis and is parallel with each other, and a second alignment layer disposed on the plurality of lens electrodes, the second alignment layer including a second alignment direction substantially perpendicular to the first alignment direction. The liquid crystal layer is disposed between the first and second alignment layers.