866results about "Camera filters" patented technology

A camera module includes a lens driving device having a housing, a first circuit board disposed below the housing, a filter disposed on an upper surface of the first circuit board, a second circuit board disposed below the first circuit board, an image sensor disposed on the second circuit board and coupled to a lower surface of the first circuit board, and a first adhesive member disposed between the lower surface of the first circuit board and an upper surface of the second circuit board, and electrically connecting the first circuit board and the second circuit board. A lower surface of the image sensor is higher than the upper surface of the second circuit board.

Methods, apparatuses, assemblies, and / or the like are provided. An example apparatus may include a housing assembly including a first component and a second component configured for selective attachment to the first component, the first component having a first annular portion and the second component having a second annular portion opposite the first annular portion, the first and second annular portions collectively defining a central opening of the housing assembly, the central opening defining a longitudinal axis of the housing assembly. An example apparatus may also include a fan assembly, which may include a fan having an airflow opening and a fan housing, wherein: the second component has a curved portion extending from the second annular portion and along the longitudinal axis, the curved portion having an opening formed therethrough, the opening defining at least one airflow passage extending from an exterior surface of the curved portion to an interior surface.

An imaging lens assembly module, which defines an optical axis, includes an optical element. The optical element includes a light blocking portion and an anti-reflecting thin film. The light blocking portion is opaque, and the light blocking portion is closer to the optical axis than the other portion of the optical element to the optical axis. The anti-reflecting thin film is disposed at least on a surface of the light blocking portion, and the anti-reflecting thin film includes a nano structure layer and at least one intermediate layer. The nano structure layer has a plurality of ridge-like protrusions which extends non-directionally. The intermediate layer is disposed between the nano structure layer and the optical element.

A blade open-close device includes a base, a blade, an actuator unit, a detectable member, and a detector. The base includes an opening portion on an optical axis. The blade is movable in an intersecting direction to cover or uncover the opening portion. The actuator unit moves the blade to one of a closing position to cover the opening portion or an opening position to uncover the opening portion. The detectable member changes a position of a first magnet and a position of a second magnet in response to coming into contact with the blade moving. The detector detects the first magnet when the blade is at the opening position and detects the second magnet when the blade is at the closing position.

A photography auxiliary device configured for detachably mounting a photographic auxiliary component in front of a camera lens of a photography device, includes a carrying body for detachably carrying the photographic auxiliary component thereon; and a mounting member configured to mount the carrying body to the photography device to thereby mount the photographic auxiliary component in front of the camera lens of the photography device. The carrying body includes a first light-transmitting portion for allowing light to pass therethrough. The mounting member defines a sliding slot to allow a fastener to pass through. The mounting bracket is mounted to the photography device via a connecting bracket. The position of the carrying body relative to the mounting bracket is adjustable and the position of the mounting bracket relative to the connecting bracket is adjustable such that the position of the photographic auxiliary component relative to the camera lens is adjustable conveniently.

The present disclosure provides a matte box kit, including a matte box body, a mounting assembly, a first magnetic attachment, and a second magnetic attachment. The matte box body includes a first connection structure and a first light path extending along a first direction. The mounting assembly is configured to secure a lens and includes a second connection structure and a second light path extending along the first direction. The first magnetic attachment is arranged on the matte box body, and the second magnetic attachment is arranged on the mounting assembly. The first and second magnetic attachments are mutually attracted to pre-align and pre-connect the matte box body and the mounting assembly. The first connection structure and the second connection structure form a detachable fixation, aligning the first light path, the second light path, and the lens along the first direction such that they are opposed and in communication.

The application provides a chemically strengthened microcrystalline glass, a cover plate glass, an electronic device and a glass device, and belongs to the technical field of microcrystalline glass. The application makes the surface composition and stress structure of the chemically strengthened microcrystalline glass with lithium disilicate as the main crystal phase meet specific requirements, so that the chemically strengthened microcrystalline glass can meet high stress levels and also ensure good weather resistance, and can better ensure that the chemically strengthened microcrystalline glass meets application requirements.

To provide an optical filter which can effectively shield light of a long wavelength region of near infrared light, especially, of a wavelength region of 850 to 1,100 nm, and can keep transmittance of visible light, especially, transmittance of green and red to be sufficiently high, and an imaging device and an optical sensor which use the optical filter and are excellent in color reproducibility.SOLUTION: An optical filter has an absorption layer containing a transparent resin and a near-infrared absorption dye (A) in a wavelength region with a maximum absorption wavelength of 850 to 1,100 nm, and a dielectric multilayer film, and satisfies all of requirements (3-2) to (3-8).SELECTED DRAWING: Figure 1

The utility model provides a human eye simulation camera, and belongs to the technical field of camera shooting. The human eye simulation camera comprises a corneal lens, a simulation iris and a photosensitive element which are sequentially arranged along a photosensitive path, a simulation pupil is arranged in the center of the simulation iris, and a filtering medium for infrared cut-off is arranged between the simulation pupil and the photosensitive element. Therefore, according to the human eye simulation camera provided by the invention, unnecessary infrared light reflection can be eliminated by arranging the filtering medium, so that the recognition precision of an eye movement algorithm is improved.

An imaging system having multiple imaging devices arranged in succession in the direction of an optical axis, including a first imaging device for generating a real intermediate image of an object on an intermediate image plane, a second imaging device for generating a virtual mirror image of the real intermediate image, the mirror image being laterally offset to the real intermediate image on the intermediate plane, and a third imaging device for imaging the real intermediate image and the virtual mirror image together as a real image on an image receiver surface to be arranged at an axial distance to the intermediate image plane. The imaging system has an optical filtering device for filtering the imaging of the real intermediate image and / or at least one of the virtual mirror images separately from each other. The imaging system includes the image receiver surface and a device for processing a real image captured by the image receiver surface. The processing device uses the image to determine positions in the direction of the optical axis of object region points, which are imaged by at least individual pixels of the pixels of the image.

The utility model discloses a pop-up light shield based on a memory metal spring, which relates to the technical field of light shields of optical systems, and comprises a fixed shield and a pop-up shield, the end part of one side of the fixed shield is provided with a plurality of mounting plates, and the plurality of mounting plates are uniformly arranged along the outer circumference of the fixed shield; a plurality of first limiting flanges are arranged at the end part of the other side of the fixed cover; a plurality of limiting guide rails are arranged on the inner wall of the pop-up cover, and each limiting guide rail is in sliding connection with the corresponding first limiting flange; the side face, close to the pop-up cover, of the mounting plate is connected with the end, away from the fixed cover, of the pop-up cover through a memory metal spring, the memory metal spring is arranged in a heating pipe in a sleeved mode, one end of the heating pipe is connected with the mounting plate, and the other end of the heating pipe is bonded to the pop-up cover. The self-unfolding mechanism adopts a self-unfolding mode of the memory metal spring, is simple in structure and convenient to deploy, and has better movement stability and higher unfolding precision.

The invention belongs to the field of information surveying and mapping, and particularly relates to a geographic information surveying and mapping unmanned aerial vehicle which comprises a surveying and mapping unmanned aerial vehicle body, a surveying and mapping camera device, a protective baffle and a filter switching mechanism, and the filter switching mechanism comprises a supporting table, a driving assembly, a connecting arm, a mounting sleeve plate, a filter, a wiping assembly and a protective cover plate. The supporting table and the driving assembly are both installed at the bottom of the surveying and mapping unmanned aerial vehicle body, one ends of the multiple connecting arms are fixedly connected to the output end of the driving assembly in a circumferential array mode, the mounting sleeve plate is fixedly connected to the other ends of the connecting arms, the filter is installed on the inner wall of the mounting sleeve plate, and the two wiping assemblies are symmetrically installed at the bottom of the supporting table. One end of the protective cover plate is fixedly connected to the inner side wall of the supporting table, and the bottom of the protective cover plate is in abutting connection with the top of the mounting sleeve plate. Therefore, the problems that in the background technology, existing filter switching depends on manual operation or the switching precision is low, so that surveying and mapping work is interrupted, and the imaging edge is blurred are solved.

To provide a lens cap with improved holding performance and improved operability when attached and detached.SOLUTION: A lens cap 1 can be attached to and detached from a lens device 2 including on a front face facing a subject a first lens 210 and a second lens 220 which are disposed in an X axial direction so that an optical axis is parallel to a Z axial direction, and includes sliders 110, 120 slidable to a cap base 100 in a Y axial direction. The slider 110 includes: engagement parts 111a, 111b engaged with engaged parts 211a, 211b of the lens device 2; and an operation part 112 operating when the lens cap 1 is attached and detached and having a recess 112a. The cap base 100 includes an opening 106 for exposing the recess 112a externally from the front face of the lens cap 1. The operation part 112 is configured to be disposed between optical axes of the first lens 210 and the second lens 220 when viewed from the Z axial direction. The slider 120 has the same shape as the slider 110.SELECTED DRAWING: Figure 4

Provided is an optical filter, including an absorbing glass substrate composed of phosphate-based glass or fluorophosphate-based glass; a bonding layer with a single layer structure; and a resin layer, wherein the resin layer is provided on the absorbing glass substrate through the bonding layer, wherein the bonding layer includes a Si atom and one or more selected from a Ti atom, a Zr atom, and an Al atom; or an optical filter, including an absorbing glass substrate composed of phosphate-based glass or fluorophosphate-based glass; and a resin layer, wherein the resin layer includes a Si atom and one or more selected from a Ti atom, a Zr atom, and an Al atom, and is provided on the absorbing glass substrate.

A head-mounted device may have left-eye and right-eye optical modules that may have a display that creates an image and a corresponding lens that provides the image to an eye box for viewing by a user. The optical modules each include a lens barrel to which the display and lens of that optical module are mounted and a head-mounted optical module gaze tracking system. The gaze tracking system may have light-emitting devices such as light-emitting diodes that emit light at a given near infrared wavelength and may operate through the lens and a removable supplemental lens. The supplemental lens may be a prescription lens and may have an antireflection portion that reduces the reflectance of the lens across visible and near infrared wavelengths. The antireflection portion may be a thin-film interference coating or a moth-eye portion. In this way, the gaze tracking system may operate through the removable supplemental lens.

In one embodiment, the system includes a first camera including a first filter having a spectral response, a first meta-optical lens, and a first sensor. The system includes a second camera including a second filter having a spectral response different from the spectral response of the first filter, a second meta-optical lens, and a second sensor. The system also includes a processor configured to receive a first image representation of the scene captured by the first camera, receive a second image representation of the scene captured by the second camera, and generate a superimposed image representation of the scene based on the first image representation and the second image representation, where the superimposed image representation has less aberration than the aberration of the first image representation and the aberration of the second image representation.

The invention relates to a trim element (10), in particular for a motor vehicle, for at least partly surrounding an image sensor or a light source (2), characterised in that it comprises at least two flaps (11-14) interconnected by at least one flexible hinge (15a, 15c) forming a one-piece assembly with the flaps (11-14), the at least one flexible hinge (15a-15c) being configured to allow the trim element (10) to be folded about at least one axis of rotation (Xa-Xc) so as to cause the trim element (10) to pass from a first state, referred to as the unfolded state, in which the flaps (11-14) are aligned in the same plane, to a second state, referred to as the folded state, in which the flaps (11-14) form a non-zero angle with respect to one another, and in that each of the flaps (11-14) is provided on an inner face (17a-17d) with a microstructure formed by a series of bumps and troughs, the microstructure giving the inner face (17a-17d) at least one physical property from a gloss of less than 0.3 GU, as measured by a 60-degree surface gloss meter, a gloss of less than 0.5 GU, as measured by an 85-degree surface gloss meter, and a reflectance of less than 2%, as measured in the visible spectrum according to the ASTM E 1331 method.

An illumination device and an imaging device. The illumination device is applied to an imaging section for imaging an object, characterized by comprising: a first objective cover composed of a light-transmissive member, disposed to direct light from the object to the imaging section in order for the imaging section to image the object, an area of a face substantially orthogonal to an optical axis of the imaging section being set to a prescribed first area; a second objective cover, an area of a face substantially orthogonal to the optical axis of the imaging section being set to a prescribed second area smaller than the first area; a first light source for illuminating the object via the first objective cover; and a second light source for illuminating the object via the second objective cover.

A camera module suited for assembled in a casing is provided. The camera module includes a camera and a switch cover. The camera is disposed in the casing and aligned with a camera hole of the casing. The switch cover is slidably disposed in the casing, wherein the switch cover includes a sliding member and a shielding member secured to the sliding member, and a thickness of the shielding member is less than a thickness of the sliding member. The camera hole is seated on a sliding path of the shielding member. The shielding member is suited for blocking between the camera and the camera hole or moving out between the camera and the camera hole. An electronic device is also provided.

The application discloses a curved photosensitive glass, a preparation method and application thereof, and belongs to the technical field of glass materials.The application meets the specific composition of the curved photosensitive glass, in particular, the content of CeO2, Sb2O3 and Ag2O meets the specific range, so that the exposed area of the curved photosensitive glass has good shielding performance, and the curved photosensitive glass shows uniform black color after heat bending treatment; meanwhile, the non-exposed area of the curved photosensitive glass has good light transmittance; and the curved photosensitive glass can meet the requirements in the fields of mobile phone cover plates, smart watches and the like.

An electronic equipment includes a casing provided with at least one opening, an image capture device, a shutter movably mounted in the casing between a working state and a resting state so that, when the shutter is in its working state, the image capture device views the exterior of the casing via the opening, and, when the shutter is in its resting state, the shutter conceals the opening for the image capture device, the equipment comprising a cover movably mounted in the casing between a retracted state and a protection state so that, when the cover is in its protection state and the shutter is in its working state, the image capture device views the exterior of the casing via the opening and a translucent zone of the cover. A corresponding operating method.

A light field imaging device and method are provided. The device can include a diffraction grating assembly receiving a wavefront from a scene and including one or more diffraction gratings, each having a grating period along a grating axis and diffracting the wavefront to generate a diffracted wavefront. The device can also include a pixel array disposed under the diffraction grating assembly and detecting the diffracted wavefront in a near-field diffraction regime to provide light field image data about the scene. The pixel array has a pixel pitch along the grating axis that is smaller than the grating period. The device can further include a color filter array disposed over the pixel array to spatio-chromatically sample the diffracted wavefront prior to detection by the pixel array. The device and method can be implemented in backside-illuminated sensor architectures. Diffraction grating assemblies for use in the device and method are also disclosed.

[PROBLEMS] To suppress deterioration of optical performance according to insertion / removal and type of wavelength filter. [SOLUTION MEANS] An optical apparatus 200 includes a processing means 203, 208 configured to perform processing regarding imaging in a case where a wavelength filter 201 configured to control a wavelength of imaging light incident on an image sensor 202 configured to capture an object image formed by an optical system 101 can be inserted or removed, and an acquiring means 208 configured to acquire optical information on the optical system that is used for the processing, the optical information corresponding to the wavelength of the imaging light according to at least one of insertion / removal and a type of the wavelength filter.

This application discloses an optical reversing element for use in a telephoto optical system and its manufacturing process, comprising: providing at least two prisms, the at least two prisms having a first bonding surface and a second bonding surface for bonding with each other; providing at least one light-shielding film, the at least one light-shielding film being disposed on the first bonding surface or the second bonding surface; calibrating the relative positions of the at least two prisms; disposing an adhesive medium between the first bonding surface and the second bonding surface of the at least two prisms; and curing the adhesive medium to hold the at least two prisms in the calibrated relative positions to form an optical reversing element.

An optical element driving mechanism includes a fixed part, a movable part, a driving assembly, and a first counterweight element. The movable part and the fixed part are arranged along an optical axis. The movable part is movable relative to the fixed part. The driving assembly is configured to drive the movable part to move relative to the fixed part. The first counterweight element is fixedly connected to the fixed part. The driving assembly is disposed on the first counterweight element.

Provided is a housing for imaging and an inspection device with which it is possible to change the degree of diffusion of and radiate light from a light source, according to the shape of a subject. The housing for imaging (100) comprises: a housing (111) which covers an imaging space; an imaging device attachment section (125) at which an imaging device (10) is attached to a first surface of the housing (111); and a light source attachment section (113) which is provided to a second surface orthogonal to the first surface of the housing (111) and at which a first light source (20) for irradiating the interior of the housing (111) is attached, wherein the housing (111) has a diffusion member provided therein, has a first opening (U) which a lens of the imaging device (10) faces on the first surface, has a second opening (T) on the second surface, and has a movable plate (107) which changes the open region of the second opening (T) through which the light from the first light source (20) enters, and the light source attachment section (113) has a change mechanism (113a) which can change the orientation of the first light source in the open region.

To provide a favorable filter array with reduced stray focused light.SOLUTION: An apparatus is disclosed comprising an optical filter array (10) including an array of optical filter elements; where each optical filter element has opposing mutually parallel principal faces connected by sidewalls including at least one pair of opposing trapezoidal sidewalls and at least one pair of opposing sidewalls that are not mutually parallel; and where the opposing mutually parallel principal faces of the filter elements collectively define optical entrance and exit apertures of the optical filter array and include interference filters. Further disclosed is a method of illuminating such a filter array.SELECTED DRAWING: Figure 1

The application belongs to the technical field of multispectral imaging system, and discloses a filter wheel control method for multispectral arbitrary spectrum imaging. The method compares the actually detected current position with the previously calibrated position, obtains the shortest path planning, avoids the detected blind area during the movement, drives the filter wheel to rotate according to the corresponding control curve stroke mode, so that the required filter aligns the optical path for imaging. The application has simple system structure requirement and simple control method implementation, can effectively and quickly complete the control of any filter in the filter wheel within half a cycle, and realizes multispectral time-sharing resident imaging.