Abstract: Disclosed is an image sensing device including a sampling module suitable for generating for each color, a plurality of images having different exposure times, based on a single image generated during a single frame time; a correction module suitable for learning correction parameters of the single image based on the plurality of images using a set learning algorithm, and generating a plurality of corrected images by removing the correction parameters from the plurality of images; and an image processing module suitable for generating a high dynamic range image corresponding to the single image, based on the plurality of corrected images.

Abstract: An apparatus to facilitate surveillance is disclosed. The apparatus includes a head-worn article, including an opening in the rear the article, a video camera mounted inside of the article, having a lens positioned at the opening to capture video data from the rear of the article and a transceiver to wirelessly transmit the video data to a remote device and receive wireless signals from the remote device to control operation of the video camera.

Abstract: Provided is a lens module including a lens, a lens barrel for accommodating the lens, a lens seat, and an optical filter disposed in the lens seat. The optical filter divides a space defined by the lens barrel and the lens seat into a first space and a second space. The first space is located at an object side of the optical filter, and the second space is located at the image side of the optical filter. The lens seat is provided with an exhaust channel communicating the first space with the outside. An air guiding groove is formed by recessing from installation surface towards the object side and communicates the second space with the exhaust channel. The air guiding groove includes a first groove close to the first space and a second groove extending from an end of the first groove while being bent towards the inner ring surface.

Abstract: An imaging lens which uses a larger number of constituent lenses for higher performance and features a low F-value, low-profile design and a wide field of view. Designed for a solid-state image sensor, the imaging lens includes constituent lenses arranged in order from an object side to an image side: a first positive refractive power lens; a second negative refractive power lens; a third lens; a fourth lens; a fifth lens; a sixth lens having a concave image-side surface near an optical axis; and a seventh negative refractive power lens.

Abstract: A process of manufacturing an imaging element is simplified. The imaging element includes a polarization pixel and a phase difference pixel. The polarization pixel included in the imaging element includes a polarizer transmitting incident light having a specific polarization direction and generates an image signal based on the incident light being from a subject and being transmitted through the polarizer. The phase difference pixel included in the imaging element includes a light shielding film being formed simultaneously with the polarizer and being disposed to be shifted in a predetermined pupil-division direction for pupil-dividing the incident light from the subject and generates an image signal for detecting a phase difference.

Abstract: The first embodiment of the present invention relates to a lens driving device comprising: a cover including an upper plate and a lateral plate extending from the upper plate; a bobbin arranged to move in a first direction within the cover; a coil arranged at the bobbin; a magnet which is arranged at the cover and faces the coil; and a base which is arranged below the bobbin and coupled to the cover, wherein the bobbin includes: a first surface facing the upper plate of the cover; a second surface which faces upwards and is arranged lower than the first surface; a first protrusion which is arranged at the first surface of the bobbin and overlapped with the upper plate of the cover in a first direction; and a groove concavely formed downwards on the second surface of the bobbin.

Abstract: 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.

Abstract: The present disclosure relates to the field of optical lenses and provides a camera optical lens. The camera optical lens includes, from an object side to an image side: a first lens; a second lens having a positive refractive power; a third lens having a positive refractive power; a fourth lens; a fifth lens; and a sixth lens. The camera optical lens satisfies following conditions: 5.00?f1/f?8.50; and 10.00?R3/d3?15.00. The camera optical lens can achieve a high imaging performance while obtaining a low TTL.

Abstract: A first region and a second region do not include sub-pixel circuits. The second region is surrounded by a display area. The first region is surrounded by the second region. When viewed orthogonally to the display area, a plurality of signal lines are provided across the second region. The signal lines include at least either two or more of scanning signal lines, or two or more of data signal lines. The signal lines across the second region run out of an edge of the first region.

Abstract: A lens module is provided, including a holder, a barrel, and an optical element. The optical element is affixed in the barrel, and the holder has a first material. Additionally, the barrel is affixed in the holder and has a second material, wherein the hardness of the first material is greater than the hardness of the second material.

Abstract: Various embodiments of the present invention relate to an electronic device for blocking light. The electronic device may comprise: a housing comprising a front plate, a rear plate facing in the opposite direction to the front plate, and a side member surrounding the space between the front plate and the rear plate; a touch screen arranged in the space and exposed through the front plate; and a camera assembly exposed through one selected from the front plate and the rear plate. The camera assembly may comprise: a camera lens facing a first part of the one selected from the front plate and the rear plate; a flash facing a second part of the one selected from the front plate and the rear plate; and an opaque layer arranged between the camera lens and the flash when seen from above the one selected from the front plate and the rear plate. The second part may be arranged adjacent to the first part. The camera lens and the flash may be arranged side by side with each other in a first direction.

Abstract: A lens with a fixed focal length includes five lens-element groups, a first front lens-element group, a second lens-element group, a third lens-element group, a fourth lens-element group, and a fifth back lens-element group is arranged in a stationary manner. Relative to an imaging plane in a lens barrel and both the focusing front group and the focusing back group are movable jointly relative to one another and to the lens-element groups arranged in a stationary manner in order to focus the lens on objects at different object distances.

Abstract: A device is disclosed which comprises a media interface configured to provide a plurality of media streams, each media stream being captured using a camera of at least one array of cameras, an input interface configured to receive a device position associated with an output device, and a processor configured to generate from the plurality of media streams an output stream adjusted to the device position.

Abstract: An image-capturing apparatus according to an embodiment of the present technology includes a camera, a lighting section, a sensor section, and an image-shooting controller. The lighting section includes a light entrance that at least a portion of external light enters, and an object for calibration that is irradiated with the external light entering the light entrance. The sensor section detects a state of the object for calibration irradiated with the external light. The image-shooting controller controls the camera according to a result of the detection performed by the sensor section.

Abstract: An image capturing apparatus includes an image capturing device configured to capture an object image, a determining unit configured to determine an area to search for an object in the image data captured by the image capturing device, a zoom unit configured to change the shooting angle of view of the image capturing unit, and a control unit configured to carry out control so that the zoom unit changes the shooting angle of view of the image capturing device to a wide-angle side when the determining unit determines the area to search for the object.

Abstract: Devices utilizing holographic 4D plenoptic capture and display technologies to generate a light field function to provide glasses-less vision correction for observers with imperfect vision, and to project an image according to the generated light field function, and methods for calibrating a four-dimensional light field for a user with an uncorrected visual acuity.

Abstract: A zoom lens includes, in order from an object side: a first lens group having positive refractive power; a second lens group having negative refractive power; a third lens group having positive refractive power; a fourth lens group having positive refractive power; a fifth lens group having negative refractive power; and a sixth lens group having positive refractive power, wherein, during zooming, an interval between adjacent two lens groups varies among the first lens group, the second lens group, the third lens group, the fourth lens group, the fifth lens group, and the sixth lens group, and the following Conditional Expression (1) is satisfied: 0<ft/f1?0.42??(1) where ft represents a focal length of an entire system at a tele end, and f1 represents a focal length of the first lens group.

Abstract: One embodiment provides a camera module including a cover; a holder disposed inside the cover; a solid lens and a liquid lens in the holder; and a connection board supplying an electric current to the liquid lens, wherein the holder includes: a first opening and a second opening facing the first opening in a direction perpendicular to an optical axis, the liquid lens is arranged in the first opening and the second opening, and a guide portion is formed on a region of the cover, which faces the connection board, so as to protrude from an inner side surface of the cover toward the connection board.

Abstract: Various optoelectronic modules are described and include one or more optoelectronic devices. Each optoelectronic module includes one or more optoelectronic devices. Sidewalls laterally surround each optoelectronic device and can be in direct contact with sides of the optoelectronic device or, in some cases, with an overmold surrounding the optoelectronic device. The sidewalls can be composed, for example, of a vacuum injected material that is non-transparent to light emitted by or detectable by the optoelectronic device. The module also includes a passive optical element. Depending on the implementation, the passive optical element can be on a cover for the module, directly on a top surface of the optoelectronic device, or on an overmold surrounding the optoelectronic device. Methods of fabricating such modules are described as well, and can facilitate manufacturing the modules using wafer-level processes.

Abstract: The invention relates to a multispectral imaging device including: a photosensitive detector DET made up of a matrix of pixels; an array of microlenses ML1, ML2, ML3 reproducing the matrix of pixels; and a filter module MF formed by a matrix of individual filters ?1, ?2, ?3 reproducing the matrix of pixels. The device is remarkable in that the array of microlenses is arranged directly in contact with the detector DET, and the filter module MF is made on a substrate SS that is put into contact with the array of microlenses.

Abstract: The present disclosure relates to a solid-state image pickup device and an electronic apparatus by which a phase-difference detection pixel that avoids defects such as lowering of sensitivity to incident light and lowering of phase-difference detection accuracy can be realized. A solid-state image pickup device as a first aspect of the present disclosure is a solid-state image pickup device in which a normal pixel that generates a pixel signal of an image and a phase-difference detection pixel that generates a pixel signal used in calculation of a phase-difference signal for controlling an image-surface phase difference AF function are arranged in a mixed manner, in which, in the phase-difference detection pixel, a shared on-chip lens for condensing incident light to a photoelectric converter that generates a pixel signal used in calculation of the phase-difference signal is formed for every plurality of adjacent phase-difference detection pixels.

Abstract: Provided is a camera, including a lens unit having a plurality of lenses and a frame receiving the plurality of lenses, a holding member holding the lens unit, and an image pickup element receiving a light beam transmitting the lenses. In the camera, the holding member has a thread portion by means of which the lens unit is movable along an optical axis, and at least one engagement portion engaging the lens unit. The thread portion has a meshing portion with a central point thereof provided on a side closer to an object than an intermediate portion of an optical total length of the camera.

Abstract: A high dynamic range image sensor may include a plurality of pixel groups. One or more pixel groups may include attenuated pixels in addition to unattenuated pixels. The unattenuated pixels may include a photosensitive area, a color filter element and a microlens of a first size. Each attenuated pixel may include a photosensitive area, a color filter element, a neutral density filter, and a microlens of a second size that is smaller than the first size. The color filter elements for each pixel in a given pixel group may be the same color. The neutral density filter may attenuate light for the attenuated pixels, increasing dynamic range of the image sensor. The microlenses of varying sizes may redirect light from attenuated pixels towards unattenuated pixels, further increasing the dynamic range.

Abstract: An image relaying device comprises a shaft, an objective lens at a distal end of the shaft, an optically transparent window region in a proximal end region of the image relaying device, an optical system in the shaft, the optical system relaying an image produced by the objective lens to the proximal end region in a way that the relayed image can be captured through the window region. The optical system's optical axis at the window region is orthogonal or substantially orthogonal to the optical system's optical axis in the shaft. An optical instrument makes use of a plurality of these image relaying devices and a corresponding plurality of image sensors where the optical path length of each image relaying device may be independently adjusted to correct for optical inconsistencies in the elements of each relaying device.

Abstract: A zoom lens consists of a positive first lens group that is fixed during zooming, a negative second lens group that moves during zooming, a positive third lens group that moves during zooming, a positive fourth lens group that moves during zooming, and a positive fifth lens group that is fixed during zooming. During zooming from a wide angle end to a telephoto end, the fourth lens group moves from an image side to an object side, the second lens group and a composite group consisting of the third lens group and the fourth lens group pass through points where respective lateral magnifications are ?1 at the same time, the fifth lens group consists of a negative fifth A lens group that moves during anti-shake operation, and a positive fifth B lens group that is fixed during the anti-shake operation, and the lateral magnification of the fifth A lens group is negative.

Abstract: The present disclosure relates to calibration, customization, and improved user experiences for smart or bionic lenses that are worn by a user. The calibration techniques include detecting and correcting distortion of a display of the bionic lenses, as well as distortion due to characteristics of the lens or eyes of the user. The customization techniques include utilizing the bionic lenses to detect eye characteristics that can be used to improve insertion of the bionic lenses, track health over time, and provide user alerts. The user experiences include interactive environments and animation techniques that are improved via the bionic lenses.

Abstract: A vibrating device includes a tubular body including first and second end surfaces, and a side wall portion that connects the first and second end surfaces, a piezoelectric vibrator provided on the first end surface of the tubular body, and a light transmitting body that is directly or indirectly connected to the second end surface and covers an opening in the second end surface of the tubular body. A connecting portion is connected to the first end surface of the tubular body inside or outside an opening in the first end surface. A tubular bent portion is connected to a surface of the connecting portion that faces toward the second end surface of the tubular body. The tubular bent portion extends in a direction from the first end surface toward the second end surface of the tubular body.

Abstract: A camera arrangement comprises an optics unit and a sensor board with an image sensor attached to a first surface of the sensor board facing the optics unit. An alignment element formed by a thermoplastic material is fixedly attached to the optics unit, and a biasing element is configured to bias the alignment element into abutment with a contact area of the sensor board. A heating element is arranged in the contact area. Upon activation the heating element is configured to transfer heat to the alignment element, such that the alignment element is heated at least partly to a temperature of at least the glass transition temperature of the thermoplastic material, for enabling alignment of the sensor board relative the optics unit.

Abstract: A portable device includes: an ECG detection circuitry configured to detect an ECG signal of a user; a pulse detection circuitry configured to detect a pulse wave signal of the user; an identity determination circuitry configured to determine identity information about the user; and a blood pressure calculation circuitry connected to the ECG detection circuitry, the pulse detection circuitry and the identity determination circuitry, storing therein a plurality of blood pressure calculation models, and configured to select a blood pressure calculation model corresponding to the identity information about the user among the plurality of blood pressure calculation models in accordance with the identity information, and perform calculation to acquire a blood pressure signal of the user using the selected blood pressure calculation model in accordance with the ECG signal and the pulse wave signal.

Abstract: A telephoto lens system having a plurality of lenses toward a focal object is proposed. The system includes a first lens with a positive refractive power, a second lens with a negative refractive power, a third lens with a negative refractive power, a fourth lens with a negative refractive power, and a fifth lens with a positive refractive power. A refractor bending an optical axis is provided between the second lens and the third lens. The angle (A) between the optical axes of the second lens and the third lens satisfies 80°?A?86°. A barrel surrounding the first lens is provided by protruding more toward the focal object than the first lens. The inner diameter of the barrel is smaller than or equal to the effective diameter of the first lens, and a stop is arranged toward the focal object of the first lens.

Abstract: A camera module (12) for a motor vehicle having a lens assembly (20), a housing (22) with a back plate (32) and a lens holder (53). The back plate (32) carries an image sensor (24) within the housing (22). The lens holder (53) is mounted to the back plate (32) and holds the lens objective (20) such that the image sensor (24) is arranged in or close to an image plane (A) of the lens objective (20). The back plate (32) is formed of at least one bi-material element (31) holding the image sensor (24). The bi-material element (31) having at least two layers (33, 34) of materials having significantly different thermal properties and being joined together such that the bi-material element (31) is adapted to bend with changing temperature.

Abstract: A multiple-lens camera has only one image sensor to capture a number of images at different viewing angles. Using a single image sensor, instead of a number of separate image sensors, to capture multiple images simultaneously, one can avoid the calibration process to calibrate the different image sensors to make sure that color balance and the gain are the same for all the image sensors used. The camera has a processor to receive from the image sensor electronic signals indicative of image data of the captured of images. The camera has a connector to transfer the processed image data to an external device or to an image display. The image display device is configured to display one of said plurality of images.

Abstract: A camera module includes an optical lens, a photosensitive chip and an electrical support. The electrical support includes a circuit module embedded in a support body to form an integral structure, a connecting member provided on the support body to electrically connect with the circuit module, and a camera component coupled at the support body and electrically connected to the connecting member. Therefore, the electrical support not only forms a circuit board to electrically connect with the camera component but only serves as a base to support the camera component.

Abstract: A system for optical alignment and calibration of an infrared camera lens, including: a lens support mechanism configured to adjust a position of an infrared camera lens relative to a camera body; at least one collimator configured to output infrared rays, wherein the at least one collimator is positioned such that the output infrared rays converge on an infrared sensor within the camera body through the infrared camera lens; and at least one curing catalyst configured to cure an adhesive placed on the infrared camera lens when an ideal lens position is determined.

Abstract: Methods and apparatus for a sensor system having a structure having a reflective surface, wherein the structure is rotatable about a longitudinal axis. Channels provide respective paths from an entry into the channels to the reflective surface. A shroud selectively block ones of the channels to provide an operational configuration and a calibration configuration.

Abstract: A image capturing lens assembly includes six lens elements, the six lens elements being, in order from an object side to an image side: a first lens element with positive refractive power having an object-side surface being convex thereof; a second lens element having negative refractive power; a third lens element; a fourth lens element; a fifth lens element with positive refractive power having an object-side surface being convex and an image-side surface being convex thereof; and a sixth lens element having an image-side surface being concave in a paraxial region thereof, the image-side surface having at least one convex critical point in an off-axial region thereof, and an object-side surface and the image-side surface being aspheric.

Abstract: An image capturing device includes a circuit board, an image capturing module, a light source module disposed on the circuit board and a connection body disposed above the light source module. The image capturing module has a first lens set and a second lens set disposed on the circuit board. The connection body has a first connection section having a first open end and a second open end. The first open end of the first connection section abuts against the light-emitting component or the upper side of the circuit board in adjacency to the light-emitting component. The first and second open ends together define a first light passage. The light-emitting component is positioned in the first light passage. The image capturing device can effectively avoid light leakage of the image.

Abstract: An imaging device includes objective optics configured to form an image at a focal plane and having an optical axis that intersects the focal plane at an optical center. An image sensor, which includes an array of sensor elements arranged in a matrix of rows and columns, is positioned in the focal plane with a center point of the matrix displaced transversely by at least ten rows relative to the optical center.

Abstract: Apparatus and methods for a light-field camera and display system. In one embodiment, a light-field camera and display apparatus is provided, which may include a display screen and photosensor layer. In one variant, the display screen includes a plurality of pinholes or microlenses and a plurality of pixels configured according to a certain configuration. Additionally, in one variant, the photosensor layer includes multiple arrays of photosensors implemented to capture light that travels through the pinholes or microlenses. Yet additionally, methods for operating and calibrating the light-field camera and display apparatus are provided. In one embodiment, logic is provided which subtracts leakage light from the generated image that is displayed to the user.

Abstract: The present technology relates to a solid-state imaging device and a driving method thereof, and an electronic apparatus that make it possible to improve the precision of phase difference detection while suppressing deterioration of resolution in a solid-state imaging device having a global shutter function and a phase difference AF function. Provided is a solid-state imaging device including: a pixel array unit including, as pixels including an on-chip lens, a photoelectric conversion unit, and a charge accumulation unit, imaging pixels for generating a captured image and phase difference detection pixels for performing phase difference detection arrayed therein; and a driving control unit configured to control driving of the pixels. The imaging pixel is formed with the charge accumulation unit shielded from light.

Abstract: A novel imaging system is provided for capturing imaging data. According to the disclosed embodiments, the imaging system comprises one or more cameras configured to capture the same scene within each camera's field of view. The imaging system also includes a plurality of bandpass filters that may be positioned in front of one or more cameras. Each bandpass filter may allow the transmission of incident electromagnetic signals between different pairs of first and second wavelengths. Accordingly, when the bandpass filters are positioned in front of the one or more cameras, each camera captures a different spectral image, i.e., containing only certain frequency components of the same scene being imaged in the cameras. The bandpass filters may be selectively aligned with one or more cameras by rotating and/or translating the filters relative to the cameras' positions in the imaging system.

Abstract: A system for the simultaneous videographic or photographic acquisition of images, in particular of samples in a plurality of sample chambers of a sample plate, preferably a microtiter plate, includes an array of microscopes having mutually parallel optical axes, wherein each microscope includes an imaging chip and an objective. The imaging chips are attached to a carrier board as an array of columns and rows. An electronics unit for processing image data for all the microscopes is associated with the carrier board.

Abstract: The present disclosure relates to the field of display technologies, and provides a touch substrate and a display panel. Specifically, the touch substrate comprises: a pixel array and a light sensing device array arranged oppositely; a light shielding layer between the pixel array and the light sensing device array; and a lens array on a side of the light shielding layer remote from the light sensing device array. The pixel array comprises a plurality of pixel units, each pixel unit comprising a plurality of sub-pixels. The lens array comprises a plurality of lens units. The light sensing device array comprises a plurality of light sensing devices. The light shielding layer is provided with a plurality of via holes.

Abstract: An electronic device includes a lens system including four lens elements. the four lens elements are, in order from an outer side to an inner side, a first lens element, a second lens element, a third lens element and a fourth lens element. The second lens element has negative refractive power. The fourth lens element has positive refractive power. At least one surface of the four lens elements has at least one inflection point. A projection device and a detecting module of the electronic device including the lens system are also disclosed.

Abstract: An image-capturing device includes: a plurality of micro-lenses disposed in a two-dimensional pattern near a focal plane of an image forming optical system; an image sensor that includes a two-dimensional array of element groups each corresponding to one of the micro-lenses and made up with a plurality of photoelectric conversion elements which receive, via the micro-lenses light fluxes from a subject having passed through the photographic optical system and output image signals; and a synthesizing unit that combines the image signals output from the plurality of photoelectric conversion elements based upon information so as to generate synthetic image data in correspondence to a plurality of image forming areas present on a given image forming plane of the image forming optical system, the information specifying positions of the photoelectric conversion elements output image signals that are to be used for generating synthetic image data for each image forming area.

Abstract: An image pickup apparatus capable of maintaining accuracy of positioning a sealing member and also applying a proper elastic repulsion force to an image pickup device. A first holding member holds an image pickup device, a first optical member is disposed forward of the device in a first direction orthogonal to an image pickup surface of the device, and a sealing member is sandwiched and held between the first optical member and the device. The first holding member has an opening portion for guiding light flux having passed through a photographing optical system to the device, and an abutment surface brought into contact with part of the first optical member. The sealing member has protrusions each extending forward in the first direction, along an outer shape of the first optical member inside the opening portion of the first holding member, as viewed in the first direction.

Abstract: The present disclosure discloses a camera optical lens. The camera optical lens including, in an order from an object side to an image side, a first lens, a second lens having a positive refractive power, a third lens having a positive refractive power, a fourth lens, a fifth lens, and a sixth lens. The first lens is made of plastic material, the second lens is made of plastic material, the third lens is made of plastic material, the fourth lens is made of plastic material, the fifth lens is made of glass material, and the sixth lens is made of plastic material. The camera optical lens further satisfies specific conditions.

Abstract: A self-aligning lens holder includes elements that register against an image sensor chip to align the holder and lens with the chip. The elements may deflect or deform. A corresponding method aligns the lens holder and a fisheye lens to the image sensor.

Abstract: An apparatus, system and method are disclosed for a manufactured imager system. The apparatus, system and method may include an imager comprising a plurality of photosites divisible into a plurality of subsections, and at least one wafer-level lens additively composed of a plurality of material layers successively deposited directly upon the imager to achieve a predetermined optical performance for each of the plurality of subsections. The material layers may comprise one or more of a photopolymer, a thermoplastic resin, a low temperature melting glass, and a glass sheet, and may be uniform or non-uniform.

Abstract: The present disclosure discloses an optical imaging lens assembly. The optical imaging lens assembly includes, sequentially from an object side to an image side along an optical axis, a first lens, a second lens, a third lens, a fourth lens, a fifth lens, a sixth lens, and a seventh lens. The first lens has a positive refractive power and a convex object-side surface. The second lens has a negative refractive power. The third lens has a positive refractive power. Each of the fourth lens and the fifth lens has a positive refractive power or a negative refractive power. The sixth lens has a positive refractive power. The seventh lens has a negative refractive power, a concave object-side surface and a concave image-side surface. A combined focal length f12 of the first and second lenses and a combined focal length f34 of the third and fourth lenses satisfy: |f12/f34|?0.3.