Abstract: A camera module 100a includes a lens unit 1a, which includes a lens 11 and a lens holder 12 holding the lens 11 therein, and an image sensing unit 2a, which has a solid-state image sensor 24. A position adjustment of the lens 11 is performed by moving the lens 11 independently of the lens holder 12, by use of electromagnetic force. This allows a fine adjustment of a position of the lens 11, thereby improving the alignment precision of the lens 11. Thus, a solid-state image sensing device is provided, which can make fine adjustments of focal lengths.

Abstract: An apparatus for assembling a lens module includes a UV light source and a pressing device. The lens modules each having a first component, a second component and UV curable adhesive applied between the first and second components. The UV light source is configured for emitting UV light toward the UV curable adhesive. The pressing device is configured for pressing the first components against the second components. A method for assembling a lens module is also included in the invention.

Abstract: A solid-state image sensor includes a plurality of light-receiving elements arranged in a light-receiving area, and a plurality of micro-lenses corresponding to the light-receiving elements, and has a flattening film formed on the plurality of the micro-lenses. At a center of the light-receiving area, the micro-lenses are placed in positions directly above corresponding photodiodes, and placed in positions which are progressively offset from positions directly above the corresponding photodiodes, towards a center of the light receiving area, as micro-lenses are located farther from the center of the light-receiving area.

Abstract: Optical subassemblies including optical transmit and receive subassemblies. The optical subassemblies comprise a housing, and first and second substrates mounted within the housing. Also disposed within the housing is a thermoelectric cooler (TEC) thermally coupled to the first substrate. An optical transmitter is mounted on the first substrate, and thermally coupled to the TEC. A TEC driver is mounted on the second substrate and electrically coupled to the TEC. In some embodiments a thermal resistance mechanism is provided for connecting the first substrate to the second substrate.

Abstract: A sensing module for light-emitting devices includes a circuit board having at least one retaining region configured to retain a optical sensor, at least one circuit configured to electrically connect the optical sensor to an output interface at a front end of the circuit board, a substrate positioned on the circuit board and having at least one aperture exposing the retaining regions, and an optical device positioned on the aperture and configured to collect emitting lights from a light-emitting device to the retaining region through the aperture.

Abstract: An apparatus for measuring light properties includes a housing defining a light input port; as well as a first light detector; a second light detector; and a coupling element. The first light detector is a single channel light detector or a multiple channel light detector. The second light detector is a multiple channel light detector. The coupling element is configured and arranged to selectively couple light incident from the light input port to one of the first light detector and the second light detector. As an alternative, a beam splitting element can be used instead of the coupling element. The beam splitting element receives light from the light input port and then splits the light and delivers a portion of the light to the first light detector and a portion of the light to the second light detector.

Abstract: An image projection mechanism of a mobile phone has a light source section for image projection, a light modulator and a projection lens. The light source section has an LED device including an LED element having a luminous wavelength in a red color region, an LED element having a luminous wavelength in a green color region, and an LED element having a luminous wavelength in a blue color region, which are provided in one package, and a lens that converts light emitted from the LED device into substantially parallel rays. The three LED elements of the LED device are turned on and off sequentially, and the light modulator is operated synchronously with the sequential turning on-off of the LED elements, thereby projecting an image displayed on the light modulator as a multicolor image through the projection lens.

Abstract: In an image sensing device having a housing, having a circuit assemblage disposed on a circuit board, and having an image sensor that is disposed on a circuit board and in front of an opening of the housing, in order to improve the shielding effect, at least one shielding layer is disposed on the circuit board carrying the image sensor.

Abstract: An optical device and a method of making an optical device is described herein. The optical device comprises a housing, an optical element, a base structure that supports the optical element and that interfaces with the housing to form a gap section between an outer wall section of the base structure and an inner wall section of the housing, a resin within the gap section fixing the housing to the base structure, and a light accommodation section in the housing. The light accommodation section accommodates a transmittance of light to the resin within the gap section.

Abstract: An accessory mounting system includes an assembly adapted for mounting or attachment at a portion of the windshield of a vehicle. A light absorbing layer at the portion of the windshield of the vehicle at least partially hides the assembly from view by a viewer external the vehicle when the viewer is viewing through the windshield with the assembly at the portion of the windshield. The light absorbing layer includes a light transmitting portion, and a forwardly-viewing camera disposed at the assembly views through the light transmitting portion of the light absorbing layer at the portion of the windshield of the vehicle when the assembly is at the portion of the windshield. The assembly may comprise a pivot element for connecting to an interior mirror or the assembly may comprise a mirror assembly mount button received by a mirror mount of a single-pivot or double-pivot interior rearview mirror assembly.

Abstract: A photoelectric conversion module includes a transmission side photoelectric conversion part for converting an electrical signal into an optical signal, a transmission side circuit board on which the transmission side photoelectric conversion part is mounted on a top surface side of the transmission side circuit board, a reception side photoelectric conversion part for converting an optical signal into an electrical signal, a reception side circuit board on which the reception side photoelectric conversion part is mounted on a top surface side of the reception side circuit board, and a housing. The transmission side circuit board and the reception side circuit board are placed such that a back surface of the transmission side circuit board is opposite to the housing and a back surface of the reception side circuit board is opposite to the housing.

Abstract: A photoelectric conversion module includes a transmission side photoelectric conversion part for converting an electrical signal into an optical signal, a transmission side circuit board on which the transmission side photoelectric conversion part is mounted off-center to one side of the transmission side circuit board at one end of the transmission side circuit board, a reception side photoelectric conversion part for converting an optical signal into an electrical signal, and a reception side circuit board on which the reception side photoelectric conversion part is mounted off-center to one side of the reception side circuit board at one end of the reception side circuit board. A surface of the transmission side circuit board on which the transmission side photoelectric conversion part is mounted is opposite to a surface of the reception side circuit board on which the reception side photoelectric conversion part is mounted.

Abstract: Disclosed is a multi-channel bio reactor with fluorescence detector which measures various bio-chemical materials using fluorescence analysis, and an on-line monitoring apparatus of it. The multi-channel bio reactor with fluorescence detector comprises a light source 10 for emitting excitation light; a light irradiation part 30 for irradiating the excitation light emitted from the light source 10; a sample receiving part 40 in which the excitation light irradiated from the light irradiation part 30 is irradiated on a sample and which has a plurality of walls 41 for receiving a sample containing a fluorescent material; and an optical detecting part 50 for detecting fluorescence emitted from the sample received in the wall 41 of the sample receiving part 40.

Abstract: This invention provides a sensor attachment device that can be easily attached and detached, a sensor and a light emitting device for a photo-electrical sensor. By downward displacement of an operation member after tip ends of a pair of locking hooks are locked to a sensor main body by inserting the sensor main body into an insertion opening with second regions of a pair of facing surfaces respectively facing toward external surfaces of central portions of the pair of locking hooks, the central portions of the pair of locking hooks can be pressed inwardly by first regions of the pair of facing surfaces, thereby fixing the sensor main body to a holding member. Accordingly, the attachment of the sensor main body is easy in comparison with the conventional configuration in which a nut is screwed onto the sensor main body, then rotated and fastened.

Abstract: A sensor device includes a base wall, a plurality of sidewalls cooperating with the base wall to define a receiving space that has an open end, an emitter disposed in the receiving space and having an emitter element to emit a light signal, a receiver disposed in the receiving space and having a receiver element to receive the light signal, a cover body disposed in the receiving space between the emitter and the receiver, a ball chamber formed between inner surfaces of the base wall and the cover body, a ball member disposed movably in the ball chamber, an emitter light passage optically communicating with the ball chamber and the emitter, and a receiver light passage optically communicating with the ball chamber and the receiver. The cover body, the emitter, and the receiver cooperatively close the open end of the receiving space.

Abstract: A light guide mechanism for an illuminance sensor includes: a lighting window configured to pass through an external light; the illuminance sensor configured to detect an illuminance of the light passed through the lighting window; and a light-blocking part provided between the lighting window and the illuminance sensor and configured to block a light other than the light passed through the lighting window. The light-blocking part has an inner surface inclined with respect to a line perpendicular to a light-receiving surface of the illuminance sensor. A direction of inclination of the inner surface is such that the inner surface faces the light-receiving surface of the illuminance sensor.

Abstract: The present invention discloses an image sensor package structure. The image sensor package structure includes a substrate, a chip, a transparent lid, a first casing and a package material. The transparent lid covers a sensitization area of the chip and it also adheres to the chip which is deposed on the substrate. The first casing, which adheres to the transparent lid, forms an opening so that light can pass through the opening and the transparent lid to enter into the sensitization area. The package material covers around the chip and the transparent lid and fills between the substrate and the first casing. Because of the arrangement of adhesive layers placed between the first casing and the transparent lid and between the transparent lid and the chip, the blockage area from moisture is elongated. Therefore, the reliability of the image sensor package structure can be enhanced.

Abstract: A retaining arrangement is provided with at least one light-barrier fastening device for fastening the light-barrier element on the retaining arrangement, and with at least one first door-fastening device, for fastening the retaining arrangement on an element of a first type of door, and also with at least one second door-fastening device for fastening the retaining arrangement on an element of a second type of door, and/or with a floor-fastening/ground-fastening or wall-fastening device, for fastening the retaining arrangement on the floor/ground or a surrounding wall and/or on an element of an undetermined type of door.

Abstract: A camera module lens cap is provided to protect a camera module in a mobile device where the camera module is exposed. The camera module lens cap includes an optically transparent member for positioning adjacent a camera lens, and a housing for carrying the optically transparent member. The housing includes an overhanging lip for engaging a base of the camera module.

Abstract: An enclosure includes a first enclosure and a second enclosure. A deflector deflects a light emitted from a light source. A first optical system leads the light emitted from the light source to the deflector. A second optical system includes at least one optical element, and leads the light deflected by the deflector onto a surface to be scanned. The first enclosure holds the light source, the deflector, and the first optical system, and the second enclosure holds the at least one optical element included in the second optical system.

Abstract: A light detecting device includes a case, a light introducing member and a light receiving element. A predetermined light is incident into an inlet face of the introducing member, and an outlet face of the introducing member emits the light incident into the inlet face. A first distance is defined between a top point of the outlet face and a focus of the introducing member, and a second distance is defined between the top point of the outlet face and a light receiving face of the receiving element. The outlet face has a convex lens shape in a manner that the first distance is smaller than the second distance.

Abstract: An illumination apparatus includes; a first solid-state light source, a second solid-state light source, a first arrangement member provided with a first arrangement surface, a second arrangement member provided with a second arrangement surface, an optical unit configured to reduce a dispersion angle of a light beam. The first solid-state light source emits a light beam having a first directivity. The second solid-state light source emits a light beam having a second directivity greater than the first directivity. A distance from the second arrangement surface to the second light-entering surface is longer than a distance from the first arrangement surface to the first light-entering surface.

Abstract: A photo reflector (30) includes a circuit board (32) provided with electrode patterns, a light-emitting element (42) and a light-receiving element (44) disposed on the circuit board, a light-transmitting resin sealing the light receiving element (44), and a light shielding member (50) provided on the circuit board to cover peripheral side surfaces of the first light-transmitting resin and the second light-transmitting resin except for upper surfaces thereof. A light-intensity adjuster (60) to adjust the photocurrent is provided on the light-transmitting resin.

Abstract: A probe for monitoring a pressurised process space includes a casing enclosing a cavity and having a first window configured to be brought into contact with the process space, and a second window. A sealing means is configured to seal the first window to the casing. At least once coupling line is disposed within the cavity between the first and second windows and is configured to guide electromagnetic radiation entering through one of the two windows to the other of the two windows. A method for monitoring a pressurised process space, in which one or more hazardous substances occur, is also disclosed.

Abstract: The present invention is related to a height adjustment device adapted in the projection apparatus and projection apparatus comprising the height adjustment device. The projection apparatus has a body and a height adjustment device. The height adjustment device comprises at least one connecting element, a rotary plate, and a screw. The connecting element is connected to the body. The rotary plate meshes with the connecting device for relative rotation, and a threaded hole is formed at the center of the rotary plate. The screw is inserted through the threaded hole to enable the rotary plate to make a linear up-down movement along the axis of the screw when the rotary plate rotates around the screw. Thus, the height adjustment device of the present invention enables a height adjustment without requiring strenuous effort and damaging the projection apparatus.

Abstract: A light barrier housing is provided in a light barrier for monitoring an automatically driven architectural closure. In order to reduce mounting work, a cable connection having at least one clamped connection is provided.

Abstract: A vacuum vessel is configured by hermetically joining a faceplate to one end of a side tube and a stem to the other end via a tubular member. A photocathode, a focusing electrode, dynodes, a drawing electrode, and anodes are arranged within the vacuum vessel. The tubular member is disposed on the periphery of the stem, and supporting pins and lead pins penetrate and are fixed to an extending section that protrudes from the tubular member. The supporting pins and the lead pins are arranged in cutout portions of the dynodes and the drawing electrode, thereby allowing effective areas of each electrode to be enlarged. Further, protuberant sections are formed on the connecting sections of each pin with the stem, thereby facilitating thickness control of the stem.

Abstract: A transceiver having a light source die, a photodetector die and a substrate is disclosed. The substrate has a first well in which the light source die is mounted and a second well in which the photodetector die is mounted. The substrate has a reflective surface which blocks light leaving the light source from reaching the photodetector unless the light is reflected by an object external to the transceiver. The reflecting surface of the second well in the substrate is shaped to concentrate light received from outside the transceiver onto the photodetector, and in one aspect of the invention it comprises a non-imaging optical element. The light source is powered by applying a potential between first and second contacts on the light source die. A signal is generated between first and second contacts on the photodetector die in response to illumination of the photodetector die.

Abstract: A camera includes a first substrate having top and bottom surfaces, a second substrate having top and bottom surfaces, a spacer substrate between a substantially planar portion of the top surface of the second substrate and a substantially planar of the bottom surface of the first substrate, at least two of the first substrate, the second substrate and the spacer substrate sealing an interior space, a detector within the interior space, and an electrical interconnection extending from the detector to outside the interior space.

Abstract: Microelectronic imagers with integrated optical devices and methods for manufacturing imagers. The imagers, for example, typically have an imaging unit including a first substrate and an image sensor on and/or in the first substrate. An embodiment of an optical device includes a stand-off having a compartment configured to contain the image sensor. The stand-off has a coefficient of thermal expansion at least substantially the same as that of the first substrate. The optical device can further include an optics element in alignment with the compartment of the stand-off. The stand-off can be formed by etching a compartment into a silicon wafer or a wafer of another material having a coefficient of thermal expansion at least substantially the same as that of the substrate upon which the image sensor is formed. The optics elements can be formed integrally with the stand-offs or separately attached to a cover supported by the stand-offs.

Abstract: A connector of connecting a light sensor and a substrate is utilized for rotating the light sensor so that the light-receiving direction of the light sensor is parallel with the substrate. When the connector is utilized in an optical touch system, the light sensor can be disposed on the substrate of the optical touch system by means of general manufacturing facilities of flat display panels. Meanwhile, the light-receiving direction of the light sensor is parallel with the substrate of the optical touch system.

Abstract: A rotary encoder capable of detecting a rotational movement of a rotator with high accuracy, and an apparatus and system for detecting the rotational movement of the rotator using the rotary encoder.

Abstract: A laser safety device and method of protecting against harmful levels of radiation. The device includes a housing with first and second apertures. A photodetector generates a first signal corresponding to a level of radiation entering the housing through the first aperture. A control circuit receives the first signal and generates a drive signal based upon the level of the radiation. A reflector array which can include micro-electro-mechanical mirrors receives the drive signal and diverts a first part of the radiation away from an incident path extending from the first aperture to the second aperture. The reflector array allows a second part of the radiation to continue along the incident path at a safe level towards the second aperture. Optionally, the reflector array blocks the incident path so that substantially no radiation passes to the second aperture if unsafe levels are detected.

Abstract: A lens assembly for an imaging device includes a lens for focusing external radiation towards an image sensor of the imaging device. A mounting member is between the lens and the image sensor so that the lens is spaced a set distance from the image sensor. An adjustment member varies position of the mounting member relative to the image sensor so that the set distance is varied.

Abstract: An image pickup apparatus includes: an image pickup device comprising a bare chip and having an image pickup area and a mount area on the same face; an electric board having the image pickup device mounted thereon; and a support having an opening. The support is disposed on the rear face of the mount surface of the image pickup device such that the rear face of the image pickup device is opposed to and exposed through the opening. The opening is supplied with an adhesive to fix the support to the image pickup device. Thus, the image pickup apparatus to which the support can be fixed with a sufficient adhesive strength can be provided.

Abstract: A universal self-contained proximity sensor for attachment to any night-vision device that does not have such a sensor or for replacement of the existing sensor. The proposed sensor has a cable with a connection cap that connects terminal contacts of the sensor with the master battery of the night-vision device and can be mechanically connected to the master-battery compartment of the night-vision device by replacing the existing cap of mastery-battery compartment. The sensor can be attached to any selected area on the surface of the night-vision device by means of tiny hooks and loops known under trademark Velcro®. This attachment is carried out with the use of two parts, one of which is adhesively attached to the substrate of the sensor and the other to the housing of the night-vision device, while both parts engage through the aforementioned tiny hooks and loops.

Abstract: A direct attach optical receiver module and a system and method for testing the direct attach optical receiver module are provided. An optical receiver module may include an optical detector and an integrated circuit with an integrated amplifier circuit and at least one integrated capacitor. In one example, the optical detector may be physically attached to the integrated circuit and the output port of the optical detector may be electrically coupled to the input port of the integrated circuit. In another example, a redistribution layer that includes a tuning inductor may be being physically attached between the optical detector and the integrated circuit.

Abstract: A scanning apparatus for preventing defocus aberration is provided. The scanning apparatus includes a flatbed scanning portion and a scanning module. The flatbed scanning portion includes a glass platform. The scanning module includes a scanning module case, a light source, multiple reflective mirrors, a lens, an optical sensing element, a printed circuit board and a metallic post. The metallic post is interconnected between the scanning module case and the printed circuit board. The printed circuit board is not in direct contact with the scanning module case so as to prevent defocus aberration resulting from thermal expansion.

Abstract: A projection apparatus includes a light source unit. The light source unit includes a light source, a cover glass that transmits light emitted from the light source, and a case that holds the light source and the cover glass. The projection apparatus forms and projects an image using the light exiting the light source unit. The case includes a front case made of metal that covers a front of the light source and an insulating member that is attachable to an inner side of the front case. The front case and the insulating member each include an opening that allows light emitted from the light source to exit and a fitting portion into which the cover glass is fitted, the fitting portion being provided around the opening.

Abstract: A photodetector to be incorporated in an optical pickup device, comprising: a photodiode that a laser light emitted from a laser diode is applied to and that outputs a signal corresponding to light amount of the laser light; and a translucent resin member configured to cover the photodiode, including a light receiving portion that the laser light is applied to and that causes the laser light to be applied to the photodiode, and a peripheral portion provided around the light receiving portion, the light receiving portion being smaller in thickness than the peripheral portion.

Abstract: A shock mount assembly includes a base member, a top member, and an isolator disposed between the base member and the top member, the isolator providing a dynamic stiffness in three different directions to limit the movement, deflection, and/or acceleration of a detector array with respect to a casing surrounding the detector array in three dimensions. A detector array including the shock mount assembly is also described herein.

Abstract: A light receiving device 1 includes a support substrate 12 provided thereon with a photodetector 11 including a photodetecting portion 111 and a base substrate 112 on which the photodetecting portion 111 is placed; and a transparent substrate 13 disposed so as to oppose the face of the support substrate 12 on which the photodetector 11 is provided. Between the support substrate 12 and the transparent substrate 13, a frame portion 14 is provided so as to surround the photodetector 11. The frame portion 14 is a photo-curing adhesive, and directly adhered to the transparent substrate 13 and the support substrate 12. Such structure provides a light receiving device capable of exhibiting the desired performance, and a method of manufacturing such light receiving device can also be provided.

Abstract: This application generally relates to methods and systems for detecting spectrophotometer misalignment. In particular, the application may characterize the noise of a spectral measurement relative to a reference substrate known to exhibit a generally linear (flat) spectral output over a known spectrum. From the spectral measurement, a linear regression may be performed on a portion of the spectral output to determine a best fit line and a correlation of determination (“R-squared value”) may be determined correlated the measured data to the best fit line. Finally, the R squared value may be compared to a predetermined threshold R squared value to determine if the sensor is misaligned beyond an acceptable amount. If so, an alert may be generated.

Abstract: A screen includes a screen main body that has a diffusion layer, a frame that is provided along the circumference of the screen main body, and to which the diffusion layer is attached through supporting members to rock, and a driving unit that is mounted on the diffusion layer and moves the diffusion layer in parallel to a surface of the diffusion layer.

Abstract: An imaging device module includes a circuit mounting layer; a bottom glass layer disposed above the circuit mounting layer; a silicon die disposed above the bottom glass layer; a top glass layer disposed above the silicon layer; and a lens holder disposed above the top glass layer. The silicon die includes an image sensor. The lens holder contains an optical component.

Abstract: An optical pickup device includes a house having three walls connected together whose horizontal cross-section is substantially U-shaped. A first wall supports one end of a shaft, a second wall facing the first wall supports the other end of the shaft and a third wall connects the first and second walls. A lubricant tray is surrounded by the three walls and the shaft. By the shaft being attached to an end side surface of the lubricant tray, the shaft can be integrally formed with the housing. A radius of curvature or an angle formed on a horizontal cross-section of the three walls is larger than a radius of curvature or an angle formed between one of the three walls and the lubricant tray.

Abstract: A method of manufacturing an optical device includes: a first step of forming an optical-device forming body that includes a plurality of columnar structures arranged in an arrangement direction on a substrate surface via a trench and an outline structure connected to and containing therein the plurality of columnar structures; a second step of oxidizing the optical-device forming body from a state where the optical-device forming body starts to be oxidized to a state where the columnar structure is oxidized; and a third step in which an unoxidized residual part of the outline structure in the second step is oxidized after the second step so as to form an oxidized body. Furthermore, the third step includes restraining the outline structure from being deformed with respect to at least the arrangement direction of the columnar structures in the third step.

Abstract: Pressure spring pieces elastically bias a free-form curved mirror such that the free-form curved mirror is pressed against positioning sections and positioned thereby. Displacement restricting sections are disposed opposite to the pressure spring pieces with respect to the free-form curved mirror in biasing directions of the pressure spring pieces with gaps. The gaps are set such that deformation of the pressure spring pieces remain within an elastic range when the free-form curved mirror moves against biasing forces of the pressure spring pieces to come into contact with the displacement restricting sections.

Abstract: An occupancy sensor having a replaceable cover with a convenient adjustment and installation scheme is disclosed herein. More particularly, a single or multi-technology occupancy sensor, assembled inside a semi-spherical shaped enclosure includes a replaceable cover with a convenient adjustment and installation scheme. This sensor design enables the sensor to be rotated after installation to obtain a desired coverage patterns. Specifically, the housing for the occupancy sensor includes a front cover having a lens assembly, a base assembly, a harmonic wheel, and a back cover. The front cover couples to the base assembly such that tool-less, manual access is available through the manually removable cover assembly to adjust several features of the sensor. The harmonic wheel enables the front cover, which includes the lens to swivel from zero to 359 degrees relative to the back cover anytime after installation.

Abstract: An LED and light guide assembly has an LED with an output surface; a first power input lead electrically coupled to a first pole and having a first surface and a second surface; and a second power input lead electrically coupled to a second pole and having a first surface and a second surface. A unitary, molded light guide has an axially extending, light transmissive body with a light output window. An input window is formed with the unitary, molded light guide being aligned in a zero-gap relationship to capture substantially all the light emitted by the LED. A support is formed integral with the light guide and envelopes a portion of the first surface and the second surface of the first power input lead and the first surface and the second surface of the second power input lead to anchor the guide with respect to the power inputs.