Abstract: An optical apparatus includes: a plurality of lens portions that forms respective images of an object; a plurality of filters disposed on respective optical axes of the plurality of lens portions; and a holding member holding the plurality of lens portions and the plurality of filters, in which the plurality of filters includes a first filter and a second filter mutually different in transmission characteristic, and in which the holding member includes a first mount portion and is detachably mountable to an imaging apparatus via the first mount portion.

Abstract: A filter mount for removably coupling an optical element to an encasement for a personal electronics device that provides openings for light paths to at least first and second cameras within the encasement. The filter mount has a frame that defines a first orifice having a bayonet coupling, wherein the first orifice provides a first light path for imaging to at least the first camera, and a second orifice, adjacent to and coplanar with the first orifice and configured to provide a second light path for imaging to at least the second camera. Rotation of the filter mount frame within the bayonet coupling couples the filter mount against the encasement and opens at least the first and second light paths to the corresponding cameras.

Abstract: This invention provides a vision system having a housing and an interchangeable lens module is provided. The module is adapted to seat on a C-mount ring provided on the front, mounting face of the housing. The module is attached via a plurality of fasteners that pass through a frame of the module and into the mounting face. The module includes a connector in a fixed location, which mates with a connector well on the mounting face to provide power and control to a driver board that operates a variable (e.g. liquid) lens within the optics of the lens module. The driver board is connected to the lens body by a flexible printed circuit board (PCB), which also allows for axial motion of the lens body with respect to the frame. This axial motion can be effected by an adjustment ring that can include an indexed/lockable, geared, outer surface.

Abstract: The present disclosure provides a lens module. The lens module includes a lens barrel provided with a light through hole and defining a receiving space; a lens group having a plurality of lenses and disposed in the receiving space; and a pressing ring disposed on an image side of the lens group. The plurality of lenses has a common optical axis. The lens barrel includes an inner side surface facing the optical axis. The inner side surface is provided with a plurality of extinction structures surrounding both the pressing ring and a lens of the plurality of lenses closest to the image side. The plurality of extinction structures is arranged in sequence in a direction from the object side towards the image side. Each of the plurality of extinction structures extends from the inner side surface towards the optical axis and has a triangular cross section.

Abstract: A filter assembly structure includes a filter holder and at least one filter, wherein the at least one filter is mounted on the filter holder using magnetic attraction. The filter assembly structure allows quick mounting and disassembling between the filter and the filter holder, and solves the problem of the filter getting stuck when the filter is being mounted on the conventional filter holder. The absence of the conventional slot reduces the thickness of the entire filter holder. Further, photograph vignetting is eliminated after the filter is mounted improving the photograph. The filter mounting is stable and reliable while also being very flexible and convenient to adjust by sliding up and down or turning left and right. Light leakage caused by a gap between the filters is reduced or eliminated improving the photographs produced with the filter assembly structure.

Abstract: An imaging apparatus includes a first member including a holding member, the retaining member holding a lens; a second member surrounding the first member; an imaging device arranged opposite to the first member and the lens; and a driving member arranged in a region adjacent to the first member driving the first member in the vertical direction relative to the imaging device. The first member includes at least a first portion and a second portion, the first portion having a first outer diameter and the second portion having a second outer diameter smaller than the first outer diameter, the first and second portions respectively having a first corner and a second corner, the first and second corners respectively having a first cutout portion and a second cutout portion. At least a portion of the driving member is disposed at a region corresponding to the second portion.

Abstract: Cylinder rings having single-start nut and bolt threads matched to one another and axial stop surfaces, running perpendicularly to the cylinder axis, between the cylinder rings are distinguished by the fact that the stop surfaces (11, 12) assigned to the nut thread (3) and the bolt thread (4) extend in an axially rising manner over at most one thread turn and each have at the end a step surface (13, 14) between the axially offset stop planes of the stop surfaces (13, 14).

Abstract: A camera module comprises an housing and at least two metal plating layers. The housing comprises a base and two platforms. The base includes a bottom surface, a top surface and an outer wall surface. A receiving hole configured to receive a lens device may be formed in the base, the receiving hole may pass through the base in a direction from the top surface to the bottom surface. The two platforms may be positioned above the top surface of the base and may have different heights. The metal plating layers extends on the outer wall surface of the base. A first end portion of each of the two metal plating layers extends to the top surface of the corresponding platform and the other end portion of the each metal plating layer extends to the bottom surface of the base.

Abstract: A camera module includes a main body, a lens module, and a connecting member mounted between the main body and the lens module. The lens module includes a cable connected to the main body. The connecting member includes a cable position structure for positioning the cable.

Abstract: A lens barrel includes a barrel wall disposed about a longitudinal axis, an external thread continuously formed on the barrel wall and having a continuous crest, and two parting lines that are longitudinally formed on the external thread and that are symmetrical about the longitudinal axis. A projection of the crest of the external thread on a plane orthogonal to the longitudinal axis has a maximum diameter and a minimum diameter. A difference between the maximum and minimum diameters is between 0.04 mm and 0.18 mm. Each of the two parting lines is disposed on portions of the external thread that define the minimum diameter.

Abstract: A camera module comprises an housing and at least two metal plating layers. The housing comprises a base and two platforms. The base includes a bottom surface, a top surface and an outer wall surface. A receiving hole configured to receive a lens device may be formed in the base, the receiving hole may pass through the base in a direction from the top surface to the bottom surface. The two platforms may be positioned above the top surface of the base and may have different heights. The metal plating layers extends on the outer wall surface of the base. A first end portion of each of the two metal plating layers extends to the top surface of the corresponding platform and the other end portion of the each metal plating layer extends to the bottom surface of the base.

Abstract: The present invention provides a wireless image transmission device, which includes a lens body which a lens is mounted. The lens body includes a transmitter unit that includes an encoder functioning to provide an encoded signal of wirelessly transmitted images. The lens body has an end forming a first connection section. An electronic device includes a control unit electrically connected to a receiver unit that includes a decoder functioning to wirelessly receive and convert the encoded signal of images from the transmitter unit into a decoded image signal to be applied to the control unit. The electronic device has an end forming a second connection section. The second connection section is connectable to the first connection section of the lens body. When the lens body is separated from the electronic device, the electronic device can receive image taken by the lens body in a wireless manner.

Abstract: A camera body is provided that includes a base member, a body mount, a focal plane shutter and a fastening member. The body mount is configured to support an interchangeable lens. The fastening member is configured to fasten the focal plane shutter unit to the base member. The body mount, the base member, and the focal plane shutter unit are disposed between a subject side of the camera body and a user side of the camera body in that order. The focal plane shutter unit is fastened to the base member that faces toward the user side of the camera body.

Abstract: Disclosed herein is a camera module, including: a lens barrel having a plurality of lenses embedded therein to collect images of external subjects; a housing receiving the lens barrel; a sealing member provided between the lens barrel and the housing to seal a space therebetween; and a bonding part performing bonding treatment on a space between the lens barrel and the sealing member.

Abstract: An accessory case for a portable electronic device (PED) includes an interchangeable camera lens system comprising one or more camera lenses. The accessory case may include an integrated attachment mechanism allowing the one or more lenses to be secured to the case in a certain position relative to the image capturing system. In certain embodiments, the one or more camera lenses may alter and/or improve the performance of an image capturing system of the PED. The one or more camera lenses may include a telephoto lens, a macroscopic lens, a fish-eye lens, a wide angle lens, and/or any other type of optical system. In some embodiments, the one or more camera lenses may be removably attached to the accessory case. In further embodiments, the one or more camera lenses may be included in a selectively positionable mechanism integrated into the accessory case.

Abstract: Disclosed herein is a camera module including: a lens part including a lens; a housing having the lens part coupled thereto; a bracket coupled to the housing; and a shaft mounted in the bracket and driving the lens part and the housing.

Abstract: A camera can include a camera body and a lens mounted to the camera body. Light passing through the lens can be incident on a recording surface that is adapted to capture the incident light. The camera can include a focus calibration control, wherein manipulation of the focus calibration control causes the focus calibration control to adjust a distance between the lens and the recording surface. The camera can include a locking control that is separate from the focus calibration control. The locking control can be configured for selective engagement to prevent the focus calibration control from adjusting the distance between the lens and the recording surface.

Abstract: A portable electronic device includes a case, a camera lens module, and a support. The case has a lens hole. The camera lens is received in the case and corresponding to the lens hole. The lens hole has a first connection portion. The first connection portion is engaged with a second connection portion of an external device accessory. Therefore, the external device accessory can be configured on the case and work with the camera lens module. The support is connected to the case, and positioned on the periphery of the lens hole. The support is configured for supporting the external device accessory on the case.

Abstract: A portable electronic device includes a case, a camera lens module, and a support. The case has a lens hole. The camera lens is received in the case and corresponding to the lens hole. The lens hole has a first connection portion. The first connection portion is engaged with a second connection portion of an external device accessory. Therefore, the external device accessory can be configured on the case and work with the camera lens module. The support is connected to the case, and positioned on the periphery of the lens hole. The support is configured for supporting the external device accessory on the case.

Abstract: A lens barrel includes a fixed cylinder, a first rotating cylinder, a linear movement cylinder which moves integrally in an axis direction with the first rotating cylinder, and a second rotating cylinder. The linear movement cylinder has equal to or more than three projections in an outer circumferential surface. The first rotating cylinder has equal to or more than three cutouts corresponding to each projection of the linear movement cylinder in an inner circumferential surface, and each cutout has a shape corresponding to a shape of each projection. Each cutout is formed in parallel with an axis of the first rotating cylinder, and in which each projections of the linear movement cylinder is inserted. An end of each cutout extends to a groove in a circumferential direction, each projection is guided in the groove, and the first rotating cylinder and the linear movement cylinder is connected.

Abstract: Disclosed herein is a camera module, including: a lens barrel having a plurality of lenses embedded therein to collect images of external subjects; a housing receiving the lens barrel; a sealing member provided between the lens barrel and the housing to seal a space therebetween; and a bonding part performing bonding treatment on a space between the lens barrel and the sealing member.

Abstract: A focus calibration apparatus allows fine adjustments to be made to the focal distance between a camera lens and sensor, in particular to take into account small changes in the mechanical tolerances such as when changing lenses. The calibration apparatus has a simple mechanism, like a focus ring, that a user can easily manipulate to simplify and speed the lens calibration process.

Abstract: A coupling system and method for removably mounting filters to a photographic camera lens. The coupling system includes a lens coupling element and filter coupling element. The lens coupling element has a magnetically attractive projecting ring that is telescopically received by and magnetically coupled within the annular body of the filter coupling element. The forward end of the annular body operably supporting a filter material.

Abstract: An exemplary camera module includes a barrel, a holder, and a compressed resilient spring member. The barrel includes a first cylindrical part and a first threaded part. The first threaded part includes external threads. The barrel further includes a first surface facing the object side. The holder includes a second cylindrical part and a second threaded part. The second threaded part includes internal threads. The holder further includes a second surface facing the image side. The barrel is coupled to the holder via the internal threads and the external threads. A fit between the internal threads and the external threads is a clearance fit. The resilient spring member is sandwiched between the first surface of the barrel and the second surface of the holder.

Abstract: A lens barrel includes a driven ring, a follower provided on the driven ring, a rotational transfer ring including a circumferential groove having no axial-direction component and a rotational transfer groove including an axial-direction component, a guide ring, and a cam groove formed on the guide ring for guiding the driven ring via the follower. Rotation of the driven ring is prevented when the follower is engaged in the circumferential groove so that the driven ring is held at a non-photographing position. When the follower is engaged in the rotational transfer groove, the driven ring is moved along the cam groove between the non-photographing position and a ready-to-photograph position. Opposed wall surfaces in the circumferential groove determine a position of the follower when the driven ring moves between the non-photographing position and the ready-to-photograph position.

Abstract: A camera module includes a lens barrel, a lens holder, and a resilient member. The lens barrel includes a first body and an extending part, and a first step surface formed between the first body and the extending part. The lens holder includes a second body, a shielding annular protrusion extends inwardly from the second body, the shielding annular includes a second step surface. The resilient member is compressed and interposed between the first step surface and the second step surface.

Abstract: An exemplary camera module includes a barrel, a holder, and a compressed resilient spring member. The barrel includes a first cylindrical part and a first threaded part. The first threaded part includes external threads. The barrel further includes a first surface facing the object side. The holder includes a second cylindrical part and a second threaded part. The second threaded part includes internal threads. The holder further includes a second surface facing the image side. The barrel is coupled to the holder via the internal threads and the external threads. A fit between the internal threads and the external threads is a clearance fit. The resilient spring member is sandwiched between the first surface of the barrel and the second surface of the holder.

Abstract: An automatic-lens-connection-type camera system, which detects insertion of a lens unit into a mount part and automatically screws a mount connector to connect the lens unit with the mount part, and a method for controlling the camera system. The camera system includes a body, a lens module mounted to be attachable to and detachable from the body, a lens module insertion part mounted on a surface of the lens module that faces the body, and a mount part for detecting insertion of the lens module into the body to mount the lens module insertion part on the body.

Abstract: A coupling system and method for removably mounting filters to a photographic camera lens. The coupling system includes a lens coupling element and filter coupling element. The lens coupling element and filter coupling element have magnetically attractive and telescopically aligning portions. The forward end of the filter coupling element operably supports a filter material.

Abstract: A camera module (100), includes a lens holder (120), a lens barrel (110) threaded in the lens holder, a lens (112) received in the lens barrel, and a plurality of resilient elements (148) connecting the lens with the lens barrel. The camera module further includes a plurality of shape memory alloy elements (142) with a preset shape. Each of the shape memory alloy elements includes two ends, one end attached to the lens, and the other attached to the lens holder. The shape memory alloy elements and the resilient elements cooperatively move the lens relative to the lens holder.

Abstract: A coupling system and method for removably mounting filters to a photographic camera lens. The coupling system includes a lens coupling element and filter coupling element. The lens coupling element has a magnetically attractive projecting ring that is telescopically received by and magnetically coupled within the annular body of the filter coupling element. The forward end of the annular body operably supporting a filter material.

Abstract: A lens barrel for holding a lens group therein has a body with a peripheral on which an external thread is formed. The external thread has a plurality of turns which are partially interrupted by at least one threadless segment such that the external thread has at least one of the turns completely extending around the periphery of the body. As a result of the threadless segment, the friction which is generated upon screwingly engaging the lens barrel into a coupling socket can be reduced.

Abstract: A focus calibration apparatus allows fine adjustments to be made to the focal distance between a camera lens and sensor, in particular to take into account small changes in the mechanical tolerances such as when changing lenses. The calibration apparatus has a simple mechanism, like a focus ring, that a user can easily manipulate to simplify and speed the lens calibration process.

Abstract: A camera unit for monitoring a spatial region has an electronic image sensor arranged on a component carrier, and a lens having a lens body. The lens body and the component carrier are connected via a first coupling piece to form an integrated structural unit. The first coupling piece has at least one limited first mobility relative to the lens body and at least one limited second mobility relative to the component carrier within the integrated structural unit. The integrated structural unit has at least one first and one second releasable clamping mechanism in order to fix the first coupling piece, the lens body and the component carrier relative to one another. Such a camera unit can advantageously be used as an imaging sensor for safeguarding a machine operating in an automated fashion.

Abstract: A thread structure for an optical lens comprises a plastic lens barrel, and the thread structure is formed on an outer surface of the lens barrel. In each single circle of the thread structure there is a normal thread and a partial withdraw thread. The partial withdraw thread is located on a longitudinal parting line of the thread structure, a top diameter and a pitch circle diameter of the partial withdraw thread are smaller than those of the normal thread, the thread structure is provided with ribs that are located at the root of a first normal thread close to the front end of the lens barrel. The withdraw thread produces an interval between the thread structure and the base, thus preventing the burrs on the parting surface from contacting the inner threads of the base and causing powder.

Abstract: A digital camera module (100) with an auto-focusing function is adapted for use in a foldable electronic device. The digital camera module includes a lens mount (10), a lens barrel (20), a voice coil actuator (40), and an image pick-up module (50). The lens barrel receives at least one lens (24) therein and is mounted on/in the lens mount. The lens barrel is made of a composite material including a magnetic metallic nano-powder. The voice coil actuator is adapted for cooperating with the lens barrel to form a magnetic loop. The image pick-up module is disposed under the lens mount and is configured for receiving an image from the at least one lens and converting that image to an electrical signal.

Abstract: An imaging device including a base on which an imaging element is provided, a cylindrically shaped plastic lens member holding a condensing lens at the inside, and a plastic barrel member in which the lens member can move in the axial direction and provided above the imaging element, wherein the barrel member and the lens member are affixed by laser welding, a method of production of the same, and an imaging device holding mechanism used for that production.

Abstract: An auxiliary photographic lens and lens holder bracket for an existing portable cellular phone having a camera function therein. The square U-shaped lens holder bracket straddles the body of the cellular phone positioning the auxiliary lens over the built-in camera lens of the existing cellular telephone. The lens cylinder has a threaded end which screws into a threaded opening in the front of the bracket and against the cell phone case around the built-in lens to secure the lens to the cell phone. The lens holder alternately serves as a protective storage device for the lens when it is not in use with the lens cylinder screwed into the cross piece of the bracket. The lens may be a telephoto lens, a wide angle lens, a filter, or alternately a zoom or adjustable lens.

Abstract: A monitoring camera has a body (10), a focus ring (20), a lens (30) and an optional control cover assembly (50). The focus ring (20) has an inner flange with an inner threaded surface (24) and an outer threaded surface (23) to attach respectively to the lens (30) and the body (10). The structure allows the lens (30) to be focused over a broad range. Additionally, the control cover assembly (50) is attached to a side face of the body (10) to cover and protect multiple switches (16) on the body (10).

Abstract: A lens holder (20) used in a digital camera includes a first housing (21) and a second housing (22) complementary thereto. Each housing includes a joining edge (203,204) and a plurality of screw threads (201,202) on an outside surface of the housings. A plurality of mounting holes (211) and a plurality of mounting pins (221) are formed on the joining edges of the housings. A plurality of partition platforms (213,223) is formed inside each housing to define a plurality of rooms for accommodating and securing a plurality of lenses. Each partition platform has a semi-circular opening (214,224) therethrough. In assembly, a plurality of lenses is inserted into the rooms and secured therein. Then, the second housing is assembled with the first housing with the locking pins inserting into the mounting holes of the joining edges. A lens holder used in a digital camera is thus formed.

Abstract: An optical part linkage device in which a threaded portion and positioning protrusions are formed at the outer periphery of a lens barrel that holds a lens. A threaded portion that can be screwed to the threaded portion of the lens barrel is provided at the inner wall surface of the holder to which a CCD package is mounted, with a plurality of positioning recesses being formed at an end of the threaded portion of the holder. After rotating a grip portion of the lens barrel in order to link the lens barrel to the holder by the threaded portions, the grip portion is turned bit by bit in order to position the protrusions with respect to the recesses by shifting them one at a time. When the rotation of the grip portion is stopped in correspondence with an optimal focal location, the protrusions engage the recesses of the holder. In this state, the protrusions do not separate from the recesses of the holder unless a strong force is applied thereto, so that the state of engagement is maintained.