Abstract: A surrounding area is imaged onto a detector of a detector device. An optical system produces an imaging beam path and a panel, which is arranged in the imaging beam path, shadows a subarea of the image of the surrounding area on the detector. In order to mask out an object which would dazzle the detector device, while nevertheless being able to monitor the surrounding area, the panel is illuminated in a subarea, and the transmission of the panel in the subarea is reduced by the illumination in the entire frequency range in which the detector is sensitive. The illuminated subarea of the panel shadows the selected subarea of the image.

Abstract: A method for capturing an image, comprising: providing a switchable imaging apparatus including a display screen having a first display state and a second transparent state, an optical beam deflector switchable between a first non-deflecting state and a second deflecting state, a camera positioned in a location peripheral to the display screen, and a controller; setting the switchable imaging apparatus to the image capture mode by using the controller to set the display screen to the second transparent state and the optical beam deflector to the second deflecting state; using the camera to capture an image of the scene; setting the switchable imaging apparatus to the image display mode by using the controller to set the display screen to the first display state and the optical beam deflector to the first non-deflecting state; and displaying an image on the display screen.

Abstract: A system for collecting data comprising a mobile terminal for capturing a plurality of frames of image data, the mobile terminal having a first imaging assembly and a second imaging assembly, the first imaging assembly for capturing a first frame of image data representing a first object and the second imaging assembly for capturing a second frame of image data representing a second object, wherein the system for use in collecting data is operative for associating first frame information and second frame information, the first frame information including one or more of image data of the first frame of image data and information derived utilizing the image data of the first frame of image data, the second frame information including one or more of image data of the second frame of image data and information derived utilizing the image data of the second frame of image data.

Abstract: The present invention ensures excellent optical characteristics corresponding with a high pixel imaging element while an imaging lens is miniaturized and has a larger aperture. The imaging lens includes, in order from an object side: a first lens having positive refractive power; a second lens in a meniscus shape including a concave surface facing an image side and having negative refractive power; a third lens having positive refractive power; a fourth lens in a meniscus shape including a concave surface facing the object side and having positive refractive power in the vicinity of an optical axis; and a fifth lens having negative refractive power in the vicinity of the optical axis and having positive refractive power in a peripheral section.

Abstract: An imaging device for an imaging apparatus adapted to image an object through an image formation lens includes: a light receiving section having a plurality of light receiving elements; a microlens section having a plurality of microlenses respectively provided corresponding to a plurality of the light receiving elements to make the corresponding light receiving elements receive an object light beam that passed through the image formation lens; a control section adapted to control shapes of the plurality of the microlenses so as to control pupil regions in an exit pupil of the image formation lens that pass a light beam that should be received by each of the plurality of the light receiving elements; and an image signal generation section adapted to generate an image signal of an image of the object based on imaging signals of the plurality of the light receiving elements.

Abstract: The present invention provides an apparatus for fetching optical images. Images from multiple channels are obtained. A device is used to automatically switch the images. The switching is based on time-sharing multiplexing (TSM). Thus, the images are formed on another device. The images are then integrated and displayed to be used in an optical vehicle safety assistant system.

Abstract: A method for capturing an image, comprising: providing a switchable imaging apparatus including a display screen having a first display state and a second transparent state, an optical beam deflector switchable between a first non-deflecting state and a second deflecting state, a camera positioned in a location peripheral to the display screen, and a controller; setting the switchable imaging apparatus to the image capture mode by using the controller to set the display screen to the second transparent state and the optical beam deflector to the second deflecting state; using the camera to capture an image of the scene; setting the switchable imaging apparatus to the image display mode by using the controller to set the display screen to the first display state and the optical beam deflector to the first non-deflecting state; and displaying an image on the display screen.

Abstract: Described are handheld devices with combined image capture and image projection functions. One embodiment includes modulating and capturing a light beam along the same optic path. In another embodiment, the optical components are operable to switch between projection and capture modes. In yet another embodiment, the optical components may be formed on the same semiconductor substrate thereby increasing functionality.

Abstract: An image processing apparatus may include an image frame determiner to determine one standard image frame and at least one reference image frame using light field data about a scene, a point spread function determiner to determine a point spread function based on sub-pixel displacement between the standard image frame and the at least one reference image frame, an image interpolator to interpolate the standard image frame into a high-resolution standard image frame having a higher resolution than the standard image frame, and an image restorer to restore a high-resolution image by updating the high-resolution standard image frame using the generated high-resolution standard image frame, the point spread function, and the at least one reference image frame.

Abstract: Provided is a solid-state imaging device capable of reducing occurrence of noise resulting from reflected light to improve light use efficiency in a case where a solid-state imaging device is constructed to have a structure in which incident light passing through a substrate is reflected toward a photoelectric conversion unit. The solid-state imaging device includes: a photoelectric conversion unit formed in an inner portion of a substrate; a condensing unit provided on a side of the substrate which incident light enters, for condensing the incident light to the photoelectric conversion unit; and a reflecting unit provided on a side of the substrate which is opposed to the condensing unit, the reflecting unit being concave to the substrate, in which the reflecting unit has a structure for substantially aligning a same magnification imaging position of the reflecting unit with a focusing position of the condensing unit.

Abstract: A phase-difference detecting image pickup element performs focus detection even if the position of an exit pupil with respect to the image pickup element changes. A pixel pair receives an object light beam transmitted through a pair of portion areas whose areas become the same in an exit pupil at a particular distance from the image pickup element. The pixel pair includes light-intercepting portions that define the pair of portion areas. A different pixel pair whose light-intercepting portions are different so that the areas of the pair of portion areas in the exit pupil the particular distance from the image pickup element are the same. By this, even if the position of the exit pupil is changed by, for example, a lens replacement, focus detection can be performed by a phase-difference detection method by selecting a pixel pair in accordance with the position of the exit pupil.

Abstract: A dual field-of-view optical imaging system is provided for obtaining two images of a scene, each image having a different field of view. The dual field-of-view optical imaging system includes a frontal dual focus lens, the dual focus lens having a central zone of focal length f1 producing a wide field-of-view image at a first focal plane and a peripheral zone of focal length f2 greater than f1 producing a narrow field-of-view image at a second focal plane; and a detector for detecting and acquiring the wide field-of-view image and the narrow field-of-view image, the detector being movable along an optical path for selective positioning at the first focal plane or the second focal plane.

Abstract: An image pickup device includes a fixedly provided half mirror that separates object light that has passed through a shooting optical system into transmitted light and reflected light, and an image pickup unit that generates an image of an object by receiving the transmitted light. The half mirror includes an optically transmissive film that is optically isotropic.

Abstract: An image processing apparatus permits a user to readily recognize a current state of an angle of view. When an angle of view is switched from a wide-angle to a narrow-angle, range display is performed for a predetermined time prior to the switching. Range display includes a narrow-angle image frame formed with lines indicating a border of an image displayed for a predetermined time prior to the switching. After the predetermined time, a narrow-angle image is displayed and the range display is no longer displayed. The range display allows a user to readily recognize that the wide-angle image has been switched to the narrow-angle image by recognizing to what area in a pre-switching wide angle of view image the post-switching narrow-angle image corresponds.

Abstract: A digital camera of the present invention includes a receiving portion 155 that receives a control signal from a remote controller, and a microcomputer 110 having a live view mode controlling so that image data generated by a CMOS sensor 130 or image data obtained by subjecting the image data generated by the CMOS sensor 130 to predetermined processing is displayed on a liquid crystal monitor 150 as a moving image in real time, wherein when the receiving portion 155 receives the control signal from the remote controller, the microcomputer 110 controls so as to shift the digital camera to a live view mode. Due to this configuration, in a digital camera that includes a movable mirror and is capable of displaying a subject image in a live view through an electronic viewfinder, the operability thereof can be enhanced.

Abstract: A new digital image/video camera that directly acquires random projections of the incident light field without first collecting the pixels/voxels. In one preferred embodiment, the camera employs a digital micromirror array to perform optical calculations of linear projections of an image onto pseudorandom binary patterns. Its hallmarks include the ability to obtain an image with only a single detection element while measuring the image/video fewer times than the number of pixels or voxels—this can significantly reduce the computation required for image/video acquisition/encoding. Since the system features a single photon detector, it can also be adapted to image at wavelengths that are currently impossible with conventional CCD and CMOS imagers.

Abstract: An image sensing apparatus, particularly, an apparatus for optically combining visible images with far-infrared images is provided in which performing a separate signal processing may not be needed. The image combining apparatus emits light that is sensed by an image sensor, and reflects the light toward the image sensor in response to far-infrared rays being sensed from an object, thereby converting far-infrared information into information that can be sensed by the image sensor.

Abstract: The present invention is a camera system which is usable with a mobile terminal. The camera system includes a lens module and at least one mechanism for changing optical properties by interacting with the lens module.

Abstract: A camera device includes: an image pickup element; a birefringent plate fixed to a front surface of the image pickup element; and an optical glass member arranged on an optical path of the image pickup element on a front side of the birefringent plate. The optical glass member has a plurality of optical characteristic areas with different optical characteristics from each other. The optical characteristic areas are switched such that one of the plurality of optical characteristic areas is arranged on the optical path by moving the optical glass member in a direction intersecting with the optical path. The plurality of optical characteristic areas include an infrared cut filter area and a blank glass area. The infrared cut filter area is formed by depositing an infrared cut material with infrared cut characteristics on a surface of the optical glass member.

Abstract: A system for collecting data comprising a mobile terminal for capturing a plurality of frames of image data, the mobile terminal having a first imaging assembly and a second imaging assembly, the first imaging assembly for capturing a first frame of image data representing a first object and the second imaging assembly for capturing a second frame of image data representing a second object, wherein the system for use in collecting data is operative for associating first frame information and second frame information, the first frame information including one or more of image data of the first frame of image data and information derived utilizing the image data of the first frame of image data, the second frame information including one or more of image data of the second frame of image data and information derived utilizing the image data of the second frame of image data.

Abstract: An image sensor includes: a plurality of first pixels that receive a light flux having passed through an optical system and output pixel signals to be used as image signals; a plurality of second pixels that receive a light flux having passed through the optical system and output pixel signals to be used as signals other than the image signals; a plurality of first pixel rows, each of which includes an array made up with a plurality of first pixels; at least one second pixel row that includes an array made up with first pixels and second pixels; an output circuit that outputs a read signal in response to which pixel signals output at the first pixels are read out from the first pixel rows over first pixel intervals and pixel signals output at the second pixels are read out from the second pixel row over second pixel intervals, different from the first pixel intervals, the output circuit outputting externally the pixel signals having been read out; and a switching device that selects a specific pixel row, eith

Abstract: An imaging device includes a housing including first and second photographing apertures which are open toward opposite directions; an image pickup device provided in the housing; a main optical system forming incident light from the first photographing aperture onto an imaging surface of the image pickup device; and an insertable optical element movable between an insertion position in an optical path of a main optical system and a removed position out of the optical path of the main optical system, the insertable optical element constituting at least a part of a sub-optical system which forms incident light from the second photographing aperture onto the imaging surface when at the insertion position. When the insertable optical element is positioned in the insertion position, the sub-optical axis is offset from the main optical axis toward the removed position of the insertable optical element in the inserting/removing direction.

Abstract: A camera system for a motor vehicle is described. Incident radiation is guided to a radiation receiving unit by means of one or more deflecting mirrors, where at least one deflecting mirror is configured to swivel. The swivelable deflecting mirror has a first mirror side, which is suitable for deflecting incident radiation, and a second mirror side, which is also suitable for deflecting incident radiation. The second mirror side exhibits a curvature shape that is different from that of the first mirror side. The swivelable deflecting mirror can be oriented in such a manner that incident radiation can be guided to the receiving unit by selecting one of the first or the second mirror side as an effective mirror surface.

Abstract: A lens optical system includes a first optical system and a second optical system. The lens optical system includes at least one reflection member to selectively redirect optical paths of light representing objects from first and second directions toward a photographing device. The first optical system includes, in order from an object to the photographing device along the optical axis, a first lens group including a first reflection member, a second lens group having a negative refractive power, a third lens group having a positive refractive power, and a fourth lens group having a positive refractive power. The second optical system shares at least one optical element with the first optical system.

Abstract: Method and apparatus for a fast (low F/number) computational camera that incorporates two arrays of lenses. The arrays include a lenslet array in front of a photosensor and an objective lens array of two or more lenses. Each lens in the objective lens array captures light from a subject. Each lenslet in the lenslet array captures light from each objective lens and separates the captured light to project microimages corresponding to the objective lenses on a region of the photosensor under the lenslet. Thus, a plurality of microimages are projected onto and captured by the photosensor. The captured microimages may be processed in accordance with the geometry of the objective lenses to align the microimages to generate a final image. One or more other algorithms may be applied to the image data in accordance with radiance information captured by the camera, such as automatic refocusing of an out-of-focus image.

Abstract: An image pickup apparatus includes an image pickup unit for generating an image signal from an optical subject image, a display having a display mode and a non-display mode, an electronic finder for displaying a preview image on the display, an optical finder for leading the subject image to a finder window, an eye proximity detecting unit for detecting proximity of the eye to the finder window, a shutter having a light-blocking mode and a non-light-blocking mode, a first control unit for switching the display to the non-display mode and switching the shutter to the non-light-blocking mode to lead the subject image to the finder window when the eye proximity detecting unit detects proximity of the eye, and a second control unit for switching the shutter to the light-blocking mode and the display to the display mode to display the preview image when proximity of the eye is not detected.

Abstract: A method for controlling an imaging beam path which is tapped off from a film recording beam path of a movie camera and is interrupted periodically as a function of the image recording frequency of the movie camera is provided. The imaging beam path is interrupted at a constant or variable frequency by means of an optical switching element during the exposure phase of the movie film, or is deflected from a first imaging plane to at least one second imaging plane, or to a light trap. An apparatus comprising at least one DMD-chip which is arranged in the imaging beam path of the movie camera and has micromirrors which are arranged in the form of a raster, can be pivoted under electronic control, and deflect an incident beam path to a first or a second imaging plane, or into a light trap.

Abstract: The invention describes several embodiments of an adapter which can make use of the devices in any commercially available digital cameras to accomplish different functions, such as a fundus camera, as a microscope or as an en-face optical coherence tomography (OCT) to produce constant depth OCT images or as a Fourier domain (channelled spectrum) optical coherence tomography to produce a reflectivity profile in the depth of an object or cross section OCT images, or depth resolved volumes. The invention admits addition of confocal detection and provides simultaneous measurements or imaging in at least two channels, confocal and OCT, where the confocal channel provides an en-face image simultaneous with the acquisition of OCT cross sections, to guide the acquisition as well as to be used subsequently in the visualisation of OCT images.

Abstract: A camera assembly that generates a high-quality self portrait may include a plurality of reflecting surfaces, such as an array of mirrors or a multi-faceted reflecting element. Each reflecting surface may be arranged so as to assist the user align the camera by rotational movement and/or translated movement to achieve a different field of view for the camera assembly for each reflecting surface. In this manner, the user may sequentially use the various reflecting surfaces to capture an image corresponding to each reflecting surface so that each image corresponds to a different portion of a scene. These portions of the scene may have some overlap and may be stitched together to form a panoramic self portrait that includes the user and portions of the scene behind the user.

Abstract: An image taking apparatus which can perform a focusing operation quickly is described. The image taking apparatus comprises a light splitting unit which splits a light flux from the image-taking lens into a plurality of light fluxes, a view finder optical system for observing an object image formed by the light flux from the image-taking lens, an image pickup element which photoelectrically converts the object image to an electric signal and a focus detection unit for detecting the focusing state of the image-taking lens according to a phase difference detection system. Here, the light splitting unit changes between a first state in which the light flux is directed to the view finder optical system and the focus detection unit and a second state in which the light flux is directed to the image pickup element and the focus detection unit.

Abstract: A method for assembling lens modules using laser bonding of external ramped surfaces. The method includes providing a lens housing with a sidewall with ramped surfaces and providing a lens barrel with external ramped surfaces. The lens barrel is positioned in contact with the lens housing such that the ramped surfaces of the lens barrel mate with the ramped surfaces of the lens housing. The lens barrel is rotated to focus a lens on an image sensor. With a laser, the method includes forming at least two bonds at an interface between the lens barrel and the lens housing such as proximate to the mating ramped surfaces. The bonds are located at equidistant points about the periphery of the lens module. The bonds may be circular or may be elliptical such as with a width along the interface that is at least twice the height of the bond.

Abstract: An optical apparatus includes a variable optical-property element, a driving circuit driving the variable optical-property element, and an image sensor. In order to compensate a change of an imaging state caused by at least one factor of temperature, humidity, a manufacturing error, a change of an object distance, and a zoom state, photographing is performed while referring to a look-up table to change driving information provided to the variable optical-property element, and the driving information that the high-frequency component of a photographed image is practically maximized is assumed so that the variable optical-property element is driven by the driving information to perform photographing.

Abstract: A lens device, in which object light is branched by a half mirror after passing through a photographic lens to allow photographing with two photographing means and in which the half mirror can be retracted from the optical axis to obtain a clear image using one of the photographing means, is provided. The half mirror in the lens device is provided between a front-side relay lens and a rear-side relay lens, and is provided such that the half mirror can be retracted away from an optical axis of the photographic lens and advanced toward from the optical axis. The rear-side relay lens is moved along the optical axis to a position in accordance with the retracting of advancing of the half mirror.

Abstract: There is provided in accordance with some embodiments of the present invention an optical assembly including a set of optical paths, wherein two or more optical paths receive an image from a common surface. The optical paths may direct received images onto a common image sensor generating a complex multidimensional data set, an image processing block may extrapolate each of the subset of optical paths printed on the image sensor and may generate a multidimensional data set based on the collected images.

Abstract: Systems and methods for a portable electronic device are provided. The portable electronic device includes a multimode camera system for providing a plurality of operation modes for the portable electronic device. The multimode camera system includes at least one image sensor and at least one lens. At least one of the image sensor(s) and the lens(es) is selectable and/or repositionable to provide a plurality of different focal lengths for the camera system.

Abstract: A switching mechanism for optical component includes: an optical component; a holder member holding the optical component; a drive mechanism having a drive motor that drives the optical component held by the holder member to rotate on a plane orthogonal to an optical axis from an optical axis position at which the optical component is on the optical axis to an evacuation position at which the optical component is off the optical axis; and a restriction member restricting a rotation of the holder member, by which at least a rotation of the optical component held by the holder member is restricted at the optical axis position. The drive mechanism includes the drive motor, a worm attached to a rotation shaft of the drive motor, and a worm wheel meshed with the worm and provided to the holder member.

Abstract: The present invention relates to cameras and other image capture devices. More particularly, the present invention relates to an image capture device having a polarizing filter that reduces reflected light during operation of the image capture device.

Abstract: There is provided an imaging apparatus having a viewfinder optical system; a first image sensor; a photometric sensor; and optical path changing means. The viewfinder optical system has a first reflective surface that reflects a monitoring luminous flux, and the first reflective surface changes a reflection angle of the monitoring luminous flux. A change in a reflection angle of the first reflective surface causes a course of the monitoring luminous flux to be switched between a first optical path and a second optical path. In a case of second optical path, a travel direction is changed with the optical path changing means placed on the second optical path, causing a photometric processing to be performed using the first image sensor, while in a case of the first optical path, the photometric processing is performed using the photometric sensor.

Abstract: An imaging device comprises a photographing lens, a first imaging sensor for taking a subject image formed by the photographing lens, a second image sensor for taking a subject image formed by the photographing lens, an optical path switching section for selectively switching subject light that has passed through the photographing lens to either one of the first image sensor or the second image sensor, a display section for displaying an image taken by the second image sensor, and a display region storage section for storing information representing a region for display on the display section from a region where imaging by the second image sensor is possible. The display section controls the display region based on the information stored in the display region storage section.

Abstract: An image-taking apparatus is disclosed which comprises an image-pickup device, an image processing unit, a display unit, a focus detection unit which detects a focus state of the image-taking lens, and an optical path splitting unit which is switchable between a first state in which it is disposed in an optical path from the image-taking lens and a second state in which it is retracted from the optical path. The optical path splitting unit transmits part of the light from the image-taking lens toward the image-pickup device and reflects the remaining part of the light toward the focus detection unit in the first state. A control unit performs focus control based on the detection result of the focus detection unit. The control unit performs the focus control in the first state such that an image-forming position matches a light-receiving surface of the image-pickup device in the second state.

Abstract: An image pickup apparatus includes a finder optical system capable of guiding an observation beam to a finder window, the observation beam being a beam traveling from a photographing optical system and reflected by a main reflecting surface; and a first image pickup device configured to detect the observation beam and generate an image signal. The finder optical system has a first reflecting surface that reflects the observation beam. The first reflecting surface can change a reflection angle of the observation beam. A path of the observation beam can be switched between a first optical path and a second optical path by changing the reflection angle of the first reflecting surface. The first optical path is reflected by the first reflecting surface and directed toward the finder window, while the second optical path is reflected by the first reflecting surface and directed toward the first image pickup device.

Abstract: A multiband camera system includes: a first sensor for generating a first object image and a first alignment image in a first frequency band; a second sensor for generating a second object image and a second alignment image in a second frequency band; and an internal alignment assembly. A splitter directs radiation in the first frequency band from the object to the first sensor to form the first object image, directs radiation in the second frequency band from the object to the second sensor to form the second object image, directs radiation in the first frequency band from the internal alignment assembly to the first sensor to form the first alignment image, and directs radiation in the second frequency band from the internal alignment assembly to the second sensor to form the second alignment image. The first alignment image and the second alignment image establish a reference for aligning the first and second object images.

Abstract: A digital camera of the present invention includes a microcomputer 110 having a live view mode controlling so that image data generated by a CMOS sensor 130 or image data obtained by subjecting the image data generated by the CMOS sensor 130 to predetermined processing is displayed on a liquid crystal monitor 150 as a moving image in real time, wherein when a release button 141 receives an instruction regarding start of an autofocus operation in a live view mode, the microcomputer 110 controls a movable mirror to enter an optical path to measure by an AF sensor 132, and thereafter, allow the movable mirror to retract from the optical path to return the digital camera to the live view mode. Due to this configuration, in a digital camera that includes a movable mirror and is capable of displaying a subject image in a live view through an electronic viewfinder, the operability thereof can be enhanced.

Abstract: A variable-power optical system includes, in order from an object side, first to fifth lens groups. The first and third lens groups are fixed at a time of varying magnification and at a time of focusing. The second, fourth and fifth lens groups are movable at the time of varying magnification. The first, third and fourth lens groups have positive refractive powers. The second and fifth lens groups have negative refractive powers. The fourth lens group has a focusing function. The following conditional expressions are satisfied. 0.4<fw/f1<0.8 0.5<|f2/fw|<0.8 where fw denotes a focal length of the whole system at an wide end, f1 denotes a focal length of the first lens group, and f2 denotes a focal length of the second lens group.

Abstract: In a digital camera having multiple optical systems, multiple image capturing elements are effectively driven to reduce power consumption. A digital camera has a first image capturing optical system having a lens and a first image sensor and a second image capturing optical system having a lens and a second image sensor. A controller and timing generator selects the image signal from the first image capturing optical system while controlling an operation or power of the second image sensor and a clock driver to be OFF when the zoom position falls within a first zoom range. When the zoom position falls within a second zoom range, the image signal from the second image capturing optical system is selected while an operation or power of the first image sensor and a clock driver is controlled to be OFF. An operation or power of the image capturing optical system which is not selected is stopped so that power consumption is reduced.

Abstract: All members of a lens-implement are arranged in a rectangular space of a main lens frame. A lens prism is fixed, three movable lens frames for zoom and focusing inserted the two guide shafts are arranged, and a image capturing lens is fixed top-to-bottom seriatim occupying the horizontal ? portion of the rectangular space, and the image capturing device is arranged at foot portion. A zoom motor is arranged at the back of the lens prism, and a zoom shaft cam, a diaphragm/shutter, a focusing ultrasonic linear motor, and a magnetic sensor are arranged along the lens frames.

Abstract: A digital single-lens reflex camera comprises: an optical viewfinder; a retractable movable mirror for guiding subject images to the optical viewfinder; an image display device, serving as an electronic viewfinder, for displaying a subject image captured by an image-capturing device with the movable mirror retracted from the optical path; and a control device for starting image data acquisition with the image-capturing device after elapsing of a predetermined time, taking into consideration the amount of time necessary for the movable mirror to be retracted from the optical path and maximum diaphragm driving time of a diaphragm driving unit, following the user making a releasing operation while displaying a moving image on the image display device. This realizes a digital single-lens reflex camera which allows settings wherein the shutter release time lag is constantly the same, regardless of whether the optical viewfinder or the electronic viewfinder is used.

Abstract: An imaging device includes a housing including a first photographing aperture and a second photographing aperture which are open toward opposite directions; at least one image pickup device and an image processing circuit for processing signals output from the image pickup device, the image pickup device and the image processing circuit being positioned within the housing and lie in a plane including the first photographing aperture; a first optical system having a bent optical path for forming an image of light incident from the first photographing aperture on an imaging surface of the image pickup device, the bent optical path being defined by a plurality of reflecting surfaces of the first optical system; and a second optical system having a linear optical path for forming an image of light incident from the second photographing aperture on the imaging surface of the image pickup device.

Abstract: In a camera system of this invention, a light beam coming from a photographing lens is reflected by a quick return mirror in the widthwise direction of a body unit, and is reflected by a second mirror via a half mirror and screen in the upward direction of the body unit except for some light beam components. The light beam reflected by the second mirror is reflected by a third mirror in a direction opposite to that of the light beam reflected by the quick return mirror, and is also reflected by a fourth mirror toward an eyepiece side in the back side of the body unit. Some light beam components reflected by the half mirror are fetched by an AF sensor unit to detect the focal point position of the photographing lens.

Abstract: Disclosed is a camera module. Embodiments of the camera module include a first lens part, a second lens part, a reflective part, and a light receiving element. The reflective part can be rotated to selectively allow either light transmitted through the first lens part or light transmitted through the second lens part to be incident the light receiving element. The first lens part and the second lens part can be provided having different focal lengths. By using the reflective part to select which lens part's transmitted light is incident the light receiving element, a zoom function can be realized.