Abstract: The present invention discloses a smart phone with a lens comprising a main body, a circuit board, a lens module, a speaker module and a flash module. The main body includes a rear casing having a circuit board mount formed at a lower portion of an inner surface of the rear casing, a lens mount formed at a position adjacent to an upper side of the circuit board mount and attached onto a lateral edge of the rear casing, and a speaker mount formed at an upper edge of the inner surface of the rear casing corresponding to another lateral edge of the rear casing. The circuit board is mounted in the circuit board mount. The lens module is mounted in the lens mount. The speaker module is mounted in the speaker mount. The flash module is mounted between the lens module and the upper edge of the rear casing.

Abstract: A portable device has a rear facing camera assembly and a front facing display assembly that includes at least a protective cover layer, a display stack that includes a plurality of display components arranged in a plurality of interconnected layers, the display stack providing an imaging service, and a flat support chassis arranged to provide support for the display stack. In the described embodiment, a protective cover can wrap around and protect at least the rear portion of the portable device without adversely affecting an image capture process carried out by the rear facing camera assembly.

Abstract: The illumination apparatus includes a light source, an optical member configured to at least transmit therethrough light from the light source, and a reflective member configured to include a reflective portion which extends closer to the optical member than the light source and reflects the light from the light source to cause the light to enter the optical member. A concave portion is formed, on a light entrance side surface of the optical member, in an outside area located outside a light entrance area where the light reflected by the reflective portion reaches. The concave portion includes a refractive surface refracting light, which is part of the light from the light source and enters the concave portion without being reflected by the reflective portion, toward an exit surface of the optical member.

Abstract: A portable device has a rear facing camera assembly and a front facing display assembly that includes at least a protective cover layer, a display stack that includes a plurality of display components arranged in a plurality of interconnected layers, the display stack providing an imaging service, and a flat support chassis arranged to provide support for the display stack. In the described embodiment, a protective cover can wrap around and protect at least the rear portion of the portable device without adversely affecting an image capture process carried out by the rear facing camera assembly.

Abstract: A lighting device including a substrate, and at least three light emitting elements mounted on the substrate, each having an upper light emitting surface in rectangular shape and side light emitting surfaces in rectangular shape. The light emitting elements are positioned to surround a light-gathering region where the light emitting elements are not located, and one of the side light emitting surfaces of each light emitting element is directed to face approximately a central portion of the light-gathering region.

Abstract: A camera head comprising: (a) housing having a front and back orientation and defining a cavity, the housing being cylindrical and having an axis, the housing having a rear portion for interengaging with a support system; (b) a first wall annularly configured in the housing; (c) a front portion in threaded engagement with the housing such that rotating the front portion causes it to move axially with respect to the housing, the front portion having a front face at least a portion of which is transparent, the front portion comprising a second wall being cylindrical and extending backward from the front face to define a center cavity, the first and second walls cooperating to define an annular cavity; (d) at least one lens attached to the second wall and disposed in the center cavity; (e) one or more light emitting devices disposed in the annular cavity and operatively connected to the housing; and (f) at least one imaging device disposed in the cavity operatively connected to the housing and optically coupled

Abstract: A conductive holder for a flash comprises a base, an elastic first holding arm, and an elastic second holding arm. The base includes a first end and an opposite second end. The first holding arm extends from the first end. The second holding arm extends from the second end and faces the first holding arm. The first holding arm and the second holding arm cooperatively forms a gap for firmly holding the flash.

Abstract: Electronic devices may be provided that include mechanical and electronic components. Connectors may be used to interconnect printed circuits and devices mounted to printed circuits. Printed circuits may include rigid printed circuit boards and flexible printed circuit boards. Heat sinks and other thermally conductive structures may be used to remove excess component heat. Structures may also be provided in an electronic device to detect moisture. Integrated circuits and other circuitry may be mounted on a printed circuit board under a radio-frequency shielding can.

Abstract: An image pickup apparatus detects a face region out of an image signal representative of a field picked up by an image pickup device, and compares the lightness of the face region or a person region with the lightness of a background region also included in the image signal to thereby determine whether or not a subject is backlit. The apparatus causes, if the subject is backlit, the image pickup apparatus to execute actual pickup with backlight correction.

Abstract: An improved handheld electronic device and camera apparatus upon which can be executed an improved method enable a modular camera to be used in conjunction with a flash. In one implementation, compensation parameters that are intended for use in a non-flash situation are overwritten with compensation parameters that are configured to compensate for the combined effects of the camera and the flash and are used by an embedded compensation routine executed on the camera. In another implementation, an image signal is processed by the embedded compensation routine using the original compensation parameters, but if it is determined that the image signal is a flash image signal, the image signal is further processed by the embedded compensation routine employing an additional set of parameters which compensate the image signal for the effect of the flash.

Abstract: A composite image device having image capturing, laser pointing, lighting and related functions in one includes a first perspective window, a second perspective window, a third perspective window, an image capturing module, laser source module, a light source module and a switchable light modulating module. The image capturing module captures ambient light through the first perspective window to generate digital image data. The laser source module emits a laser through the second perspective window. The light source module emits illuminating light through the third perspective window. The switchable light modulating module includes at least a light modulating gate and a switching device for moving the at least a light modulating gate to a position relatively parallel to the second or third perspective window to modulate the emitted laser or the emitted illuminating light.

Abstract: A camera flash comprises a light guide arranged to extract light at least through one surface; and one or more light sources arranged, in use, to emit light into the lightguide. Each light source is an LED or a laser diode. The camera flash is connectable, in use, to drive circuitry, the drive circuitry being for driving the light source(s) to emit a pulse of light. The waveguide spreads out the light from the light source(s), so that a flash of light from the camera flash does not present a safety risk, while minimising loss of the light from the light source(s). The camera flash can thus provide a high overall optical output, spread over an extended area (as defined by the waveguide). The lightguide may for example be disposed around a camera module of a mobile telephone camera.

Abstract: An exemplary camera device includes an optical lens module, an image sensor and a light emitting module. The optical lens module is for forming an image of an object on an image plane associated therewith. The image sensor is disposed on the image plane of the optical lens module and for capturing the image formed by the optical lens module. The light emitting module includes a transflective optical element and a light emitting element. The transflective optical element is located between the optical lens module and the image sensor. The light emitting element faces towards the transflective optical element.

Abstract: A portable electronic device includes a main body, a camera positioned in the main body, a fill-in light emitting unit positioned in the main body adjacent to the camera, and an optical lens positioned between the fill-in light emitting unit and outside of the main body. The optical lens includes an incident surface facing the fill-in light emitting unit, a light emitting surface opposite to the incident surface, and a plurality of elongated V-shaped ridges formed on the incident surface. The elongated V-shaped ridges are substantially parallel to each other and symmetrical about a central portion of the optical lens. Vertex angles between symmetric elongated V-shaped ridges progressively increase along a direction away from the fill-in light emitting unit.

Abstract: An imaging apparatus includes an image sensor, a display unit configured to display an image acquired from the image sensor, and a control unit configured to perform a live view display of an image of an object on the display unit for a user to observe the object and to perform photographing after a self-timer setting time elapses from when a photographing start operation is performed, wherein the control unit compares, when performing the live view display, time required for charging a flash and the self-timer setting time, and if the self-timer setting time is longer than the time required for charging the flash, the control unit does not cause a charging operation of the flash to be performed before starting to count the self-timer setting time and causes the charging operation of the flash to be performed after starting to count the self-timer setting time.

Abstract: An imaging apparatus has a grip portion, a camera portion, and a monitor portion for displaying an image captured by the camera portion. The camera portion has an imaging optical system and an imaging device for capturing the image of a subject guided by the imaging optical system. The grip portion has a grip casing resembling a flat plate. The casing has a width greater than its thickness and a length greater than the width. The camera portion is connected to a longitudinal end of the grip casing rotatably about a first axis extending along the width. The monitor portion is connected to the camera portion so as to be rotatable together with the camera portion about the first axis and is connected rotatably about a second axis perpendicular to the first axis. The imaging optical system of the camera portion has an optical axis located on the first axis.

Abstract: A flash unit includes a flash device operable to emit flash, a storage member operable to store the flash device, a cover with which the storage member is covered from above, and to which the flash device is attached, a first link member that is turnably connected to the storage member at one end and turnably connected to the cover at another end, and a retaining member.

Abstract: An imaging apparatus includes a mount to which a lens unit is mountable, an imager operable to generate an image signal from light incident through the lens unit, a light-emitter operable to emit light, and an electric storage device operable to supply electric power to the light-emitter. The electric storage device is disposed behind the mount and below the imager.

Abstract: A commander flash apparatus for use in a wireless flash system which continuously emits light from the commander flash apparatus, transmits from the commander flash apparatus to a slave flash apparatus the data corresponding to the emission time interval of the commander flash apparatus, and controls the flash emission of a slave flash apparatus includes: a data setting unit for setting emission control data for control of the emission of the slave flash apparatus and emission amount determination data for determination of an amount of emission of the slave flash apparatus as the transmission data; and a data transmission control unit for controlling the emission of the commander flash apparatus so that the emission time interval per bit of the digital data configuring the emission control data can be longer than the emission time interval per bit of the digital data configuring the emission amount determination data.

Abstract: An improved handheld electronic device and camera apparatus upon which can be executed an improved method enable a modular camera to be used in conjunction with a flash. In one implementation, compensation parameters that are intended for use in a non-flash situation are overwritten with compensation parameters that are configured to compensate for the combined effects of the camera and the flash and are used by an embedded compensation routine executed on the camera. In another implementation, an image signal is processed by the embedded compensation routine using the original compensation parameters, but if it is determined that the image signal is a flash image signal, the image signal is further processed by the embedded compensation routine employing an additional set of parameters which compensate the image signal for the effect of the flash.

Abstract: A lighting device including a substrate (10), and at least three light emitting elements (11) mounted on the substrate, each having an upper light emitting surface in rectangular shape and side light emitting surfaces in rectangular shape. The light emitting elements are positioned to surround a light-gathering region (12) where the light emitting elements are not located, and one of the side light emitting surfaces of each light emitting element is directed to face approximately a central portion of the light-gathering region.

Abstract: A camera includes a frame and a flash unit. The frame is provided with a first retainer and a second retainer at two different places thereof. The flash unit is alternatively attached to the two places via one of the first retainer and the second retainer.

Abstract: Provided is a photographing apparatus. The photographing apparatus may illuminate auto focus (AF) auxiliary light onto a subject without regard to an opening/closing of a flash because the flash may illuminate the light out of a main body even when the flash is received in the main body in a retracted position.

Abstract: Various image-capturing systems are disclosed that use polarized filters to reduce or control glare effects on captured images. In one embodiment, the system includes a light source, a first polarized filter adapted to polarize light emanating from the light source; a second polarized filter adapted to perform polarized filtering on received light; and an image-capturing device adapted to receive the filtered light. In another embodiment, the system further includes an actuator to selectively move any of the polarized filter into and out of the light path. In yet another embodiment, a method of forming a resultant image comprises recording a first image with a filter set to a first polarization angle, recording a second image with the filter set to a second polarization angle, and blending the first and second images. The recording of the first and second images may be performed simultaneously or at different times.

Abstract: An exemplary camera device includes an optical lens module, an image sensor and a light emitting module. The optical lens module is for forming an image of an object on an image plane associated therewith. The image sensor is disposed on the image plane of the optical lens module and for capturing the image formed by the optical lens module. The light emitting module includes a transflective optical element and a light emitting element. The transflective optical element is located between the optical lens module and the image sensor. The light emitting element faces towards the transflective optical element.

Abstract: An improved handheld electronic device and camera apparatus upon which can be executed an improved method enable a modular camera to be used in conjunction with a flash. In one implementation, compensation parameters that are intended for use in a non-flash situation are overwritten with compensation parameters that are configured to compensate for the combined effects of the camera and the flash and are used by an embedded compensation routine executed on the camera. In another implementation, an image signal is processed by the embedded compensation routine using the original compensation parameters, but if it is determined that the image signal is a flash image signal, the image signal is further processed by the embedded compensation routine employing an additional set of parameters which compensate the image signal for the effect of the flash.

Abstract: A device may include a camera to capture an image, a sensor to measure information indicative of a color characteristic of light in an environment, and a processor to adjust a color characteristic of a flash based on the color characteristic of the light in the environment and activate the flash for capturing the image according to the adjusted color characteristic.

Abstract: A power connection device for connecting a flash tube and a camera module includes a wire, a first electrical connector, and a second electrical connector. One end of the wire is connected with the flash tube, and the first electrical connector is electrically connected with the other end of the wire. The second electrical connector is located at a power supply terminal of the camera module and the second electrical connector is electrically plugged with the first electrical connector. Thereby, the flash tube is connected with the camera module via the power connection device.

Abstract: A handheld electronic device 10 comprising first and second parts 11, 12 at least partially retractable with respect to one another along an extension axis 14 of the device to define retracted and extended configurations of the device, the device comprising a camera assembly 13 and a camera illumination assembly 21, the camera illumination assembly being arranged to be between the first and second parts in the extended configuration, the device being arranged such that the camera illumination assembly is substantially housed within the first and/or second parts in the retracted configuration and exposed in the extended configuration.

Abstract: A mounting structure of an LED includes an LED unit including an LED, a lens element in front of the LED, and a collar around the lens element; a support member including a through-hole through which the lens element of the LED unit is exposed and an annular portion; an annular contacting surface formed on one of the annular portion as an annular concave surface and the collar as an annular convex surface; an annular contacting portion, formed on the other of the annular portion and the collar, wherein an orientation of the LED unit is adjusted by changing a relative contacting position between the annular contacting surface and the annular contacting portion; and a fixing device which fixes the LED unit to the support member while maintaining the contacting position of the annular contacting surface and the annular contacting portion after the adjustment.

Abstract: A camera includes a frame and a flash unit. The frame is provided with a first retainer and a second retainer at two different places thereof. The flash unit is alternatively attached to the two places via one of the first retainer and the second retainer.

Abstract: An image-taking apparatus is disclosed, which has an effective arrangement of sound input or output portion. The image-taking apparatus comprises a main body, a lens barrel provided on a front face side of the main body, an illumination unit which illuminates an object and is provided on the top face of the main body. The front face of the illumination unit is arranged at a position closer to the object than the front face of the main body. The apparatus further comprises a sound input/output portion. In a direction orthogonal to the bottom face of the main body, at least a part of the sound input/output portion is provided in an area between the periphery of the lens barrel and the illumination unit on the front face of the main body.

Abstract: In an image sensing device in which a hinge mechanism is secured to the side face of the main body of the image sensing device and an image display unit for displaying a captured image is mounted by the hinge mechanism so as to be free to rotate, a light-emitting device for emitting light toward a subject is accommodated inside the hinge mechanism.

Abstract: An image pickup apparatus includes an imaging optical system, an image sensor, an image signal processing section and a light-amount characteristic giving section. The imaging optical system has a distortion in such a way as to form an image whose center part is stretched, and whose peripheral part is squeezed. The image sensor has a light reception surface at which a subject image is formed through the imaging optical system, and converts the formed subject image into image signals. The image signal processing section performs an image processing for correcting the image signals with respect to the distortion. The light-amount characteristic giving section gives the subject image a characteristic in which the amount of light at a center part of the subject image formed at the light-reception surface of the image sensor is larger than that at a peripheral part of the subject image.

Abstract: An illuminating system for a camera that can illuminate an area according to an angle of view of the camera for stroboscopy is provided. The illuminating system includes: a light source emitting light; and an illuminating lens arranged in an optical path of the light emitted from the light source and having a fly-eye lens surface with a plurality of lens cells thereon and an aspherical or spherical lens surface opposite to the fly-eye lens surface.

Abstract: Provided are a flash apparatus and a portable terminal having the same. The flash apparatus includes a main body, a light emitting diode, a lens, a lens housing, and a lens transfer part. The main body has an opening part, and the light emitting diode is disposed in the opening part. The lens is disposed on a light emitting path of the light emitting diode. The lens housing is disposed in the inside of the opening part to fix the lens, and the lens transfer part moves the lens housing in one of an upper direction and a lower direction.

Abstract: In an embodiment of a flash apparatus, a semiconductor laser device is used as a flash-use light source. Laser light beams are approximately evenly scattered by a reflector plate whose reflection surface is formed of Ag coarse film, whereby illumination of a wide range and safety are secured. In an embodiment of the semiconductor laser device, the semiconductor laser device is disposed such that a longitudinal direction of an imaging area 20a of a camera and a wide direction of far-field patterns 11a1, 12a1 and 12b1 of laser light emitted from the semiconductor laser device match.

Abstract: The present invention provides a camera in which a flash emission section is aligned with a self-timer light-emitting indicator section and the amount of slide of a slide door is minimized. The camera includes; a housing with an opening for an image-taking optical system and a first opening through which both the flash emission section and the self-timer light-emitting indicator section appear; and a slide door with a second opening having a cover partially attached thereto. The opening for the image-taking optical system, the first and second openings and the amount of slide of the slide door are arranged such that, when the slide door is closed, part of the first opening overlaps with part of the second opening and the overlapped part of the first opening is shielded by the cover provided in the second opening.

Abstract: A digital camera containing an internal flash also has an externally attached flash which is adapted to emit light by using as trigger a signal received from the internal flash. A control system for the flash includes circuits for starting and stopping preliminary and main emission of light from the external flash by using as trigger the starting and stopping of light emission from the internal flash and may also be adapted to vary the quantity of light from the external flash for the preliminary emission by changing its waveform. A light screen may be provided to prevent light from the internal flash from illuminating the target object to be photographed by the camera and a light conductor such as an optical cable may connect the internal flash with the external flash. A single knob is operated to switch between two or more different modes of operation such as automatic and manual modes.

Abstract: A digital image capturing apparatus includes a housing, a first hole installed on the front side of the housing for inputting light from the front, a second hole installed on the rear side of the housing for inputting light from the rear, a reflector module installed in the housing for reflecting the light input from the first hole or the second hole, a photosensor installed in the housing for sensing the light from the reflector module, and an image generating module installed in the housing for generating an image according to the light sensed by the photosensor.

Abstract: An electric dust-proof device includes a driving mechanism disposed on a base seat unit, and a dust-proof plate driven by the drive mechanism. The driving mechanism includes a power unit, a drive unit driven by the power unit, a driving seat driven by the drive unit, and a driven seat driven by the driving seat. The dust-proof plate is driven by the driven seat to move between an open position and a close position.

Abstract: An image capturing apparatus illuminate and captures an image of an object using reflected light from the object. In the apparatus, a plurality of light-emitting devices are mounted in the periphery of an image sensor, and the light of the plurality of light-emitting devices is guided to an image capturing region by a light guide member for illumination. On the image capturing apparatus having the image capturing system disposed close to the illumination system, a hood is provided for optically intercepting the image capturing system from the illumination system, with a flange disposed thereon. The light reflected on the upper face of a filter can be intercepted from being incident on an image capturing system unit. Accordingly, output light not irradiating the object and causing an image capturing noise can be intercepted, which is effective for a clear photographed image.

Abstract: A lighting apparatus for lighting subjects to be photographed, includes a plurality of lighting units each having a lighting element and a radiating surface for radiating light from the lighting element, and each radiating surface having a normal line oriented in the same direction. Further, the lighting apparatus includes an optical-path deflection unit that has a plurality of optical-path deflectors for each of the lighting units, to deflect a direction and an illuminating angle of light emitted by each of the lighting elements. The optical-path deflectors are formed as one body. Therefore, the lighting apparatus has a simple structure, and uniformly illuminates the photographing area of the camera, by deflecting each optical path of light from the lighting units.

Abstract: A mobile telephone quipped with a camera may employ, as a camera flash, one or more RGB tri-color LEDs arranged on a face of the mobile telephone which is aligned with the direction in which a photograph may be taken by the camera. The viewing angle of the RGB tri-color LED may be greater than the field angle of the camera, and a lens may be arranged in front of emitting portion(s) of the RGB tri-color LED so as to cause illuminance to be uniform within the field angle of the camera. The RGB tri-color LED may also serve as an indicator of telephone functions.

Abstract: In an image sensing device in which a hinge mechanism is secured to the side face of the main body of the image sensing device and an image display unit for displaying a captured image is mounted by the hinge mechanism so as to be free to rotate, a light-emitting device for emitting light toward a subject is accommodated inside the hinge mechanism.

Abstract: A lens-fitted photo film unit comprises a main body, a bottom lid, and a photo film. The main body has an exposure chamber with a taking lens. The exposure chamber is provided with a plane mirror disposed in such a manner as to be inclined 45 degrees with respect to the optical axis of the taking lens. Since the plane mirror reflects light from a subject, a photographic optical path of the light is perpendicularly bent. Subject light forms an image on the photo film disposed in parallel with the optical axis. A side print is exposed in the manufacture on the lateral edge of the photo film. Since the orientation of the photographed image is the same as that of the side print, it is possible to easily confirm the orientation of the photographed image in the development and print processes.

Abstract: Image projection apparatus wherein, a focusing lens is controlled when a shutter is operated so that a contrast signal, obtained when a luminance signal from a camera signal processing circuit is supplied to an auto focusing detection circuit, may become maximum. A laser diode is driven to generate laser beams that are condensed into parallel laser beams by a condenser. These parallel laser beams are applied to a hologram plate and thereby diffracted. The diffracted laser beams interfere with each other, to produce a hologram image with sufficient contrast. Therefore, satisfactory focusing can be made in an auto focus mode of the contrast detection system or in a manual focus mode.

Abstract: Image protection apparatus wherein, a focusing lens is controlled when a shutter is operated so that a contrast signal, obtained when a luminance signal from a camera signal processing circuit is supplied to an auto focusing detection circuit, may become maximum. A laser diode is driven to generate laser beams that are condensed into parallel laser beams by a condenser. These parallel laser beams are applied to a hologram plate and thereby diffracted. The diffracted laser beams interfere with each other, to produce a hologram image with sufficient contrast. Therefore, satisfactory focusing can be made in an auto focus mode of the contrast detection system or in a manual focus mode.

Abstract: A flash device for a lens-fitted photo film unit pre-loaded with unexposed photo film is provided. A main capacitor stores charge. A flash emitter emits flash light. A flash circuit board charges the main capacitor, and drives the flash emitter by discharging the main capacitor in response to an exposing operation. A tightly closed flash case is secured to the lens-fitted photo film unit, for containing the main capacitor, the flash emitter and the flash circuit board. Also, the lens-fitted photo film unit includes a sync switch for generating a trigger signal in response to the exposing operation. Two switch contact points are disposed outside the flash case, for receiving the trigger signal from the sync switch. The two switch contact points disable discharge of the main capacitor while the flash case is away from the lens-fitted photo film unit, and are short-circuited for discharge of the main capacitor upon supply of the trigger signal while the flash case is secured to the lens-fitted photo film unit.

Abstract: An operating apparatus is utilized in a photographic device, and includes a base frame, a rotating seat, and a moving seat that carries a pop-up flash unit thereon. The rotating seat and the moving seat are disposed within a first accommodating chamber in the base frame. When a starter button is operated, the rotating seat rotates from a first position to a second position, where the rotating seat projects from the base frame. The moving seat moves away from the rotating seat from a retracted position to an extended position during rotation of the rotating seat. As such, the flash unit is transformed from a non-projected position to a projected position so as to increase the distance between the flash unit and a lens and thus the light distribution angle of the flash unit, thereby improving the photographic quality of the photographic device.