Abstract: Provided are an light scanning device capable of adjusting the position of optics and an image forming apparatus including the light scanning device. The light scanning device includes first and second light sources configured to emit first and second light beams, respectively; optics including first and second lenses for transmitting the first and second light beams therethrough and a lens holder configured to support the second lens; and a housing configured to support the first and second light sources and the optics, wherein the first and second light sources and the first lens are supported to be fixed to the housing, and the second lens is supported to be able to move with respect to the first lens.

Abstract: A method of manufacturing a plurality of glass members comprises bringing a first main surface of a glass substrate in contact with a first working surface of a first mold substrate, the first working surface being provided with a plurality of first protruding portions, and bringing a second main surface of the glass substrate in contact with a second working surface of a second mold substrate, the second working surface being provided with a plurality of second protruding portions. The method further comprises controlling a temperature of the glass substrate to a temperature above a glass-transition temperature to form the plurality of glass members, removing the first and the second mold substrates from the glass substrate, and separating adjacent ones of the plurality of glass members.

Abstract: A heat transfer apparatus includes a circuit board assembly and an image sensor including a plurality of photodetectors disposed in a semiconductor material. The image sensor is mounted to the circuit board assembly. A thermal strap with a first end is thermally coupled to transfer heat out of the image sensor. A heat sink is thermally coupled to a second end of the thermal strap opposite the first end of the thermal strap to receive heat from the image sensor.

Abstract: A semiconductor lithography projection exposure apparatus includes a projection lens which includes a manipulator. The manipulator includes an optical element; a base frame; a sensor frame arranged on the base frame; and a sensor arranged on the sensor frame. The manipulator is configured to correct wavefront aberrations of used optical radiation that pass through the optical element during the operation of the projection lens. The manipulator is arranged directly after an object plane of the apparatus along a path of the used optical radiation. The sensor is configured to measure a deformation or a deflection of the optical element. A coefficient of thermal expansion of the sensor frame is within 16 ppm/K of a coefficient of thermal expansion of the base frame.

Abstract: An optical lens assembly including at least two lens elements and an adhesive is provided. The lens elements are stacked disposed, and each of the lens elements includes an optical portion allowing imaging rays to pass through and an assembly portion configured to fix the lens. Each of the assembly portions of two adjacent lens elements includes an adhesive surface, and the adhesive surfaces are disposed opposite to each other to form an adhesive gap. The adhesive is distributed in the adhesive gap and adhered to fix the adhesive surfaces disposed opposite to each other. The adhesive surface of one lens element extends outwardly towards a direction away from an optical axis of the lens element to form an adhesive entering tapered surface configured to guide the adhesive into the adhesive gap.

Abstract: Infrared cameras can include an infrared sensor and an infrared lens assembly defining an optical axis. A camera can include an inner gear engaging the infrared lens assembly and a focus ring that engages the inner gear. The inner gear can engage the focus ring and the infrared lens assembly such that rotation of the focus ring about its central axis can cause the rotation of the infrared lens assembly about its optical axis, which may be offset from the central axis of the focus ring. The camera can include a sensor can threadably engaging the infrared lens assembly and fixed relative to the infrared sensor such that rotation of the infrared lens assembly causes the infrared lens assembly to move relative to the infrared sensor. The sensor can support other components such as a visible light lens assembly or a laser within a perimeter of the focus ring.

Abstract: Provided herein are systems and methods for scanning an optical sensor on a platform required to operate within a medium having a different pressure than the internal pressure of the sensor, including both underwater and high-altitude applications. For the case of underwater platforms, portions of the vehicle may be pulled or driven by propulsive forces through the water, whereas other portions of the vehicle may carry the platform for optical scanning, attached and rotationally controlled with respect to the driven portion of the vehicle. The platform may be rotated with respect to the portion that is pulled or driven through the water or other fluid. In some embodiments, that driven portion remains rotationally fixed with respect to the water. Other embodiments of vehicles in different environments may interface with different fluids or gasses and may be driven through the fluids or gases in similar manners.

Abstract: A camera module according to an embodiment of the present invention may include a first Printed Circuit Board (PCB) configured to have an image sensor mounted thereon; a housing unit disposed over the first PCB; a holder module spaced apart from a bottom surface within the housing unit at a specific interval and configured to have a first coil wound on its outer circumferential face and to include at least lens therein; a second PCB combined with the bottom surface of the holder module; a third PCB disposed over the holder module; and a plurality of wire springs each configured to have one end connected to the second PCB and the other end connected to the third PCB.

Abstract: An apparatus is provided which may be selectively used in a variety of different ways. In one example the apparatus may be attached to one or more preexisting optical accessories to allow a user to view external environmental information concurrently when looking through the ocular lens of an optical device. Advantageously, such an implementation may permit a user to effectively obtain environmental data without moving away from an optical device. In another example, an optical system may be used to selectively attach an external device to an optical device to transmit environmental data recorded by the external device in order to superimpose an image through an ocular lens to be displayed concurrently with a target scene.

Abstract: A monolithic lens mount is formed by an annular body which is divided through material recesses into an outer mount ring, an inner mount ring and three connection structures which are arranged so as to be offset by 120° relative to one another. The connection structures in each instance form a chain of at least three, preferably five, connection webs which transition into one another and which are constructed as radial connection webs and axial connection webs. The axial flexural stiffness and radial flexural stiffness and the torsional stiffness of the connection structures can be determined via the dimensioning of the radial connection webs and axial connection webs.

Abstract: A lens barrel and an imaging device utilizing the same includes a fixed cylinder that has a guide groove; a cam cylinder which is rotatably provided to the fixed cylinder and has a cam groove having a tapered section; and a moving lens support member that supports a moving lens and movably supports a cam follower that moves along the guide groove. The cam follower has a tapered contact section, which can be brought into contact with the tapered section of the cam groove, and is impelled radially outward by the cam follower impelling member.

Abstract: A mobile terminal including a camera module includes a case; a camera module housing, wherein at least a portion of the housing is exposed through an opening in the case; a first lens unit disposed in the housing and having a plurality of lenses configured to focus light received through the exposed portion of the housing; a second lens unit disposed in the housing and configured to magnify an image formed by light passing through the first lens unit as a function of a distance between the first lens unit and the second lens unit; and a moving unit connected to the first lens unit and the second lens unit and configured to move at least one of the first lens unit and the second lens unit in order to adjust the distance between the first lens unit and the second lens unit.

Abstract: The present invention comprises a semiconductor-type light source, a lens, a lens holder, and a heat sink member. Positioning sections are provided in the lens and the lens holder, respectively. The positioning section in the lens holder comprises a pressing section and a positioning surface. The positioning section in the lens comprises a protrusion-receiving section and a positioning protrusion section. As a result, the present invention is capable of accurately positioning the lens, relative to the lens holder, in the standard optical axis direction of the lens.

Abstract: An image pickup apparatus includes a circuit board, a solid-state image sensing device disposed on an upper surface of the circuit board, a cylindrical lens barrel disposed above the circuit board, a lens housed in the lens barrel, and a holding member that holds the lens barrel and the circuit board therein. The solid-state image sensing device is positioned in an enclosed space formed by the lens barrel and the circuit board. The lens barrel has a first flange portion protruding in a direction perpendicular to a central axis of the lens barrel. The holding member has a first fitting groove portion in which the first flange portion of the lens barrel is fit. A thermal expansion coefficient of the holding member is smaller than a thermal expansion coefficient of the lens barrel.

Abstract: A sight includes a cylinder, a first lens, a first lens seat, and at least one first elastic member. The first lens is disposed in the cylinder. The first lens seat carrying the first lens is disposed in the cylinder. The first elastic member is disposed between an outer surface of the first lens seat and an inner periphery of the cylinder, wherein the first lens seat is tightly fitted with the cylinder and light enters the cylinder through the first lens.

Abstract: A lens barrel that is capable of easily switching a state where a lens position is adjustable and a state where the lens position is not adjustable only by rotating a lens holding frame with respect to a support barrel. The lens holding frame holds a lens. The support barrel supports the lens holding frame at a first support position and a second support position that is reached by rotating the lens holding frame from the first support position around an optical axis with respect to the support barrel. The support barrel supports the lens holding frame so that the position of the lens is adjustable with respect to a reference axis at the first support position, and supports the lens holding frame so that the position of the lens is not adjustable with respect to the reference axis at the second support position.

Abstract: An optical assembly for an electro-optical reader includes a lens mounted in a stepped barrel. The stepped barrel has a barrel step between first and second barrel portions. The optical assembly is installed along an optical axis in a stepped chassis having a first chassis section that receives the first barrel portion with a slip fit in which a mechanical clearance exists between the first chassis section and the first barrel portion, a second chassis section that receives the second barrel portion with an engagement fit in which the second barrel portion frictionally moves against the second chassis section, and a chassis step between the first and second chassis sections. The chassis step is spaced away from the barrel step after installation of the optical assembly to bound a debris compartment to trap any debris resulting from the frictional movement of the second barrel portion against the second chassis section.

Abstract: The invention relates to an optical zooming system for use on fusion splicers. The system may include a lens, camera, and a zooming mechanism, which allows the camera and the lens to move relative to each other. The zooming mechanism may be set to a “zoom out” configuration for aligning the cores of fibers. The zooming mechanism may also be set to a “zoom in” configuration for adjusting fibers with a large diameter.

Abstract: A lens module for an imaging apparatus includes a lens assembly including a first lens and a second lens, a holder holding the lens assembly, a first adhesive that adheres the first lens to the holder, an elastic modulus of the first adhesive being larger than an elastic modulus of the first lens, and a second adhesive that adheres the first lens to the holder, an elastic modulus of the second adhesive being smaller than the elastic modulus of the first lens. The first adhesive is interposed between one surface of the first lens and the holder and the second adhesive is interposed between the other surface of the first lens and the holder.

Abstract: A lens module having lenses disposed in a lens barrel; and a spacer disposed between two of the lenses comprising a light shielding hole configured to adjust an amount of light incident therethrough, and the spacer is coupled to at least one of the two lenses.

Abstract: An optical device includes a lens assembly that performs a forward/backward movement in an optical axis direction. The optical device also includes at least one first driving device that generates a first driving force that causes the lens assembly to perform the forward/backward movement in the optical axis direction. The optical device further includes at least one second driving device that generates a second driving force in a direction that is opposite to the moving direction of the lens assembly. The second driving force may be formed to be equal to or smaller than the first driving force so that the reciprocating amplitude of the lens assembly may be reduced when the lens assembly reciprocates before and after the focusing position. The optical device as described above may be variously implemented according to embodiments.

Abstract: An exemplary embodiment of the present disclosure includes an array sensor arrayed with a plurality of image sensors, and a plurality of lens units respectively mounted on the plurality of image sensors.

Abstract: A camera filter unit (1) includes an optical filter (2), a filter holding ring (3), and a filter frame (4) that are coaxially disposed in this order from the inside to the outside. The optical filter (2) has a tapered annular chamfered surface (13) on an outer peripheral edge of a rear filter surface (12). The filter holding ring (3) includes a front stopper (21) that is abuttable on the optical filter (2) from a front (X1) and a rear stopper (22) that extends along the annular chamfered surface (13). The filter frame (4) includes a second rear stopper (32) that prevents the optical filter (2) from moving to a rear (X2). The optical filter (2) is held by the filter holding ring (3) in a rotatable manner about an axis L. The optical filter (2) is fixed in a relatively unrotatable manner by the second rear stopper (32) abutting on the rear filter surface (12).

Abstract: Electro-magnetic actuators used to provide a displacement of an optical element such as a lens carrier comprise at least one ferromagnetic frame associated with a large air gap and at least one ferromagnetic member parallel to and separated from an elongated section of a frame by a small air gap. Actuation causes a magnetic circuit that appears in the at least one frame, the at least one member and small air gaps and by-passes or bridges the large air gap. In some embodiments, the resultant magnetic force moves the at least one member and leads to the displacement of an optical element attached thereto. In some embodiments, at least one frame and at least one member are arranged to provide a center hole and are dimensioned to enable insertion of a lens carrier in the hole. In some embodiments, the displacement is for auto-focus. In other embodiments, the displacement is for optical image stabilization.

Abstract: A VCM is disclosed, the VCM including a rotor having a first driving unit and arranged therein with a lens, a stator having a second driving unit wrapping the first driving unit and being opposite to the first driving unit, a base supporting the stator and having an opening formed at a position corresponding to that of the lens, a connection terminal including a pair of first and second connection terminals arranged at an upper surface of the base, and an elastic member including a first elastic member coupled to the rotor and electrically connected the first connection terminal and a second elastic member coupled to the rotor and electrically connected the second connection terminal.

Abstract: An optical mount for holding an optical element includes a mounting block having an aperture and an optical element adapted to fit within the aperture. A retaining clip is secured to the mounting block and extends across the optical element. The clip is a thin sheet of flexible material comprising contact straps that overlie edge portions of the optical element. The clip is connected to the mounting block by fasteners.

Abstract: An illumination optical system that illuminates a target surface includes a first deflector, a second deflector, and an optical integrator. The first deflector is arranged on a first face crossing an optical path of light from a light source and has a period in a first direction defined on the first face. The second deflector is arranged on a second face crossing an optical path of light from the first deflector and has a period in a second direction defined on the second face. The optical integrator has a plurality of wavefront division facets arrayed on a third face crossing an optical axis of light from the second deflector. At least one of the first and second deflectors rotates about an optical axis of the illumination optical system or about an axis parallel to the optical axis in order to adjust a pattern of an illumination distribution.

Abstract: A plastic barrel includes an object-end portion, an image-end portion and a tube portion. The object-end portion includes an object-end surface and an object-end hole, wherein the object-end surface includes a plurality of annular grooves, which are disposed coaxially to a central axis, and each of the annular grooves includes a stepped surface. The image-end portion includes an image-end opening. The tube portion connects the object-end portion and the image-end portion.

Abstract: An optical device includes a support structure configured to retain an optical element using a cured adhesive composition that is disposed between a surface of the support structure and a surface of the optical element, wherein a structured optical particulate material is dispersed throughout the cured adhesive. The structured optical particulate material redirects curing radiation via a scattering mechanism to facilitate curing of portions of the adhesive compositions that cannot be directly exposed to the radiation, thereby facilitating rapid and more thorough curing than could otherwise be achieved without the structured optical particulate material.

Abstract: A projection apparatus includes a light source to emit a light beam, an image display element to provide image information to the light beam, and a noise reduction mechanism disposed between the light source and the image display element. The noise reduction mechanism includes an optical element to transmit the light beam emitted from the light source, a dielectric elastomer fixed to the optical element, and first and second electrodes provided on first and second surfaces of the dielectric elastomer, respectively. The dielectric elastomer is deformed in accordance with the application of a voltage across the first and second electrodes to moves the optical element.

Abstract: An optical lens assembly includes a hollow retainer having an inner surface, an object-side opening, and an image-side opening, and an optical lens integrally formed with formation of the retainer and filled a portion of the retainer. The optical lens includes an object-side surface facing toward the object-side opening, and image-side surface facing toward the image-side opening, and a lateral surface extending from the object-side surface to the image-side surface. The retainer and the optical lens are aligned along an optical axis.

Abstract: The techniques disclosed herein provide an enhanced mount for a camera module. The mount comprises at least a first side and a second side. The sides are formed to enable contact with at least a portion of the camera module. The sides are configured with openings to enable a fastening material, such as an adhesive, to secure the camera module to the mount. Openings within the mount enable the use of a fastening material to secure the camera module to at least one surface of the mount while allowing the camera module and at least one surface to maintain the mechanical contact. In some configurations, one or more openings are formed such that a contraction of the fastening material pulls the camera module toward at least one surface of the mount.

Abstract: Disclosed is a voice coil motor, the motor including a mover having a bobbin equipped with a lens and a coil block secured to an outer circumference of the bobbin; a stator having a magnet that is disposed in such a way as to face the coil block; elastic members coupled to a lower end of the bobbin and connected to both ends of the coil block; a base supporting the elastic members and the stator; and a cover can covering the mover, the stator and the base, with an opening being formed in the cover can to expose the lens therethrough, wherein each of the elastic members includes a terminal portion that extends between the cover can and a side surface of the base, the terminal portion including a short-circuit prevention portion so as to inhibit a short-circuit between the terminal portion and the cover can.

Abstract: The exemplary embodiment of the present disclosure relates to a camera module including a rear-opened front body, a rear body coupled to a rear side of the front body to form an inner space, a lens part coupled to the front body, an image sensor accommodated at the inner space to convert a light having passed the lens part to an electrical signal, a PCB (Printed Circuit Board) accommodated at the inner space and mounted with the image sensor, and a closed curve-shaped packing member interposed between the front body and the rear body, wherein the packing member includes a support part extensively formed from the packing member to an inner side, and the front body or the rear body includes a support part accommodation groove having a shape corresponding to that of the support part, whereby adhesionability during assembly of packing member can be maximized to thereby minimize an installation defect, a depressed or stamped phenomenon of a packing member that may occur during assembly process.

Abstract: A light blocking member includes a first surface, a second surface, an outside surface and an inside surface. The first surface includes a first asymmetric opening. The second surface includes a second asymmetric opening corresponding to the first asymmetric opening. The outside surface disposed between the first surface and the second surface includes a cutting portion and an arch portion. The cutting portion connects the first asymmetric opening and the second asymmetric opening. The inside surface is disposed between the first surface and the second surface. A virtual curved surface is formed between two ends of the cutting portion, and a virtual line is formed between a central point of the virtual curved surface and a central axis of the light blocking member. Two shapes of both of the first asymmetric opening and the second asymmetric opening with respect to two sides of the virtual line are asymmetric.

Abstract: A lens spacer may be configured to maintain a gap between a first lens and a second lens arranged along an optical axis. The lens spacer may include a first film member having a ring shape and may include a plurality of first tabs and a plurality of first recesses disposed between adjacent ones of the first tabs. The first tabs may protrude from an inner circumferential surface of the first film member toward the optical axis. A second film member may have a ring shape and may include a plurality of second tabs and a plurality of second recesses between adjacent ones of the second tabs. The second tabs may protrude from an inner circumferential surface of the second film member toward the optical axis. The first and second film members may be arranged along the optical axis, and the second tabs may overlap respective ones of the first recesses.

Abstract: Doublet lenses and doublet lens assemblies, and methods of assembling doublet lenses and assemblies, including a first lens having a convex surface and a concave surface, the concave surface comprising a peripheral portion and a central portion, and a second lens having a convex surface and a concave surface, the concave surface comprising a peripheral portion and a central portion. The peripheral portion of the first lens abuts the peripheral portion of the second lens with an airspace between the central portion of the first lens and the central portion of the second lens. The peripheral portions of the first and second lenses are shaped to fit together in a mating relationship which prevents sliding of the first and second lenses relative to each other in a radial direction after the lenses are brought together.

Abstract: A process of forming optical sensors includes sealing an imaging portion of each of a plurality of optical sensors on a sensor wafer with a transparent material. The operation of sealing leaves a bonding portion of each of the optical sensors exposed. The process further includes cutting the wafer into a plurality of image sensor dies after sealing the optical sensors such that each image sensor die includes one of the optical sensors sealed with a corresponding portion of the transparent material.

Abstract: A vision system for a vehicle includes a camera disposed at a windshield of the vehicle and having a field of view forward of the vehicle and through the windshield of the vehicle. The camera includes a lens and is electrically connected to circuitry established at a circuit board via a flexible electrical connector. The flexible electrical connector flexes to allow a viewing angle of the camera to differ from a mounting angle of the circuit board. As disposed at the windshield, the circuit board is angled relative to the principal axis of the field of view of the camera.

Abstract: A light retainer is provided with a grommet having a tubular body with an inner surface providing a cavity with a first inner groove and a second inner groove spaced lengthwise of the body from the first inner groove, the first inner groove configured to receive a heated lens and the second inner groove configured to receive a light. A heated light assembly is also provided with a grommet, a heated lens and a light.

Abstract: A method and a device for the material-fit connection of an optical element to a frame are disclosed.

Abstract: A laparoscopic instrument for forming an incision in a body cavity, insufflating the body cavity with gas, and suturing the incision at the completion of the surgery includes a set of jaws at the distal end of the Veress needle or cannula. The jaws are pivoted to one another for motion between an open position or a closed position in which they may be used to grasp a suture in the body cavity for removal from the cavity for knotting. A push mechanism at the proximal end of the instrument moves the jaws between their open and closed position on successive actuations of a pushbutton and retains them in that state until the next push. An illumination source is provided for the distal end of the instrument to provide illumination through the walls of the body cavity so that the surgeon can determine the degree of penetration of the instrument into the body cavity and can identify any major arteries which should be avoided in the formation of other laparoscopic openings.

Abstract: Examples of cases and other accessories for mobile electronic devices are provided. Some cases are provided to protect mobile electronic devices from unintended forceful contact that could otherwise cause damage to the mobile electronic devices and/or to protect the mobile electronic devices against unwanted and potentially damaging ingress of harmful materials, such as water, dust, dirt, and/other potentially damaging materials. Some cases can include an attachment region that is configured to receive an auxiliary component to be used and/or attached with the mobile electronic device, such as an auxiliary lens or other optical device that can be used and/or attached with an onboard camera of the mobile electronic device.

Abstract: An image-capturing apparatus is disclosed, including a lens driver module and a sensor module; wherein the lens driver module includes a lens housing chamber and a female engagement base, the lens housing chamber being for housing a lens, and the female engagement base being located inside the lens driver module; the sensor module includes a sensor and a male engagement base; the female engagement base being disposed on the male engagement base; and an optical calibration facility being used to adjust the lens driver module; when an optical axis of the lens driver module is parallel to a sensor optical axis of the sensor module, a glue is applied to fasten the lens driver module and the sensor module so that the female engagement base and the male engagement base do not move with respect to each other.

Abstract: Provided is a photographing apparatus. The photographing apparatus includes: a main body having an image pickup device disposed therein; a middle cover disposed in a back side of the main body and includes a first opening disposed to correspond to a position of the image pickup device; a first connector formed on the middle cover and around the first opening, where the first connector is configured to couple to an external optical component and is disposed so that the an optical axis of the image pickup device coincides with an optical axis of the external optical component, when the external optical component is coupled to the first connector; and a rear cover disposed on the middle cover and includes a second opening disposed to correspond to the position of the image pickup device.

Abstract: Portable, mobile, lightweight, removable, low cost, easy to manufacture, easy to ship, easy to transport, easy to store, and easy to use optical adapters that provides an effective means of videoconferencing over a mobile phone or other mobile device with a camera. Embodiments include landscape and portrait adapters that can be easily applied, used and removed while maintaining a professional and aesthetic appearance. Small mirrors within the optical adapter allow light from the front of the mobile device to enter the adapter and be conditioned and redirected into the built-in lens of the camera on the back of the mobile device. Novel embodiments include a lens reverser and/or a re-lens. Optical adapters also provide for self-imaging or surveillance. Various protective cases and adapter embodiments are configured to match specific mobile devices.

Abstract: A camera module includes a housing having a guide groove formed therein, the guide groove being extended lengthwise in an optical axis direction, a lens barrel mounted in the housing and having a guide protrusion inserted into the guide groove, and an elastic member disposed on the guide groove so that the guide protrusion may be prevented from being separated from the guide groove.

Abstract: An optical fiber endoscopic probe used to deliver radiation, in particular laser radiation, during a surgical procedure. The configuration of components of the endoscopic probe in use is adjustable so as to direct the radiation which exits the fiber as desired. The present invention also relates to a device used to direct the exiting beam of radiation in such an endoscopic probe, which may in particular be used in a narrow probe channel, for example for prostate laser surgery, and to a method of surgical treatment using the endoscopic probe.

Abstract: A damping device of an optical element of a projection exposure machine includes at least two mass dampers arranged spaced apart from one another, the vibration absorbers each having at least one damper mass and at least one damping element and the damper masses of the at least two mass dampers being interconnected by at least one connecting element. The optical element can be part of a projection exposure machine.

Abstract: Disclosed is lens module. The lens module includes a barrel and a lens group disposed in the barrel. The lens group includes a first lens element connecting with the barrel and a second lens element connecting with the first lens element. The first lens element connecting with the barrel makes the lens module have a first matching precision. The first matching precision makes the barrel and the lens group be concentric. The first lens element has a first arc surface and the second lens element has a second arc surface engaging with the first arc surface which makes the lens module have a second matching precision. The second matching precision makes the first lens element and the second lens element be concentric.