Abstract: A mirror is used to form a beam of laser-radiation having a uniform intensity distribution from a beam of laser-radiation having a non-uniform intensity distribution. The mirror has a reflective surface that has a compound shape, which is two inclined surfaces joined by a rounded apex. The compound-mirror is achromatic and can form a uniform intensity distribution from a polychromatic beam of laser-radiation. The uniform intensity distribution may be an isotropic distribution or a flat-top distribution in a plane. The non-uniform intensity distribution may be a Gaussian distribution from a laser source.

Abstract: A mirror display includes a light source, a light guide plate configured to guide light emitted from the light source, a first electrode layer spaced apart from the light guide plate and including at least one first hole, a first spacer provided between the light guide plate and the first electrode layer, a second electrode layer spaced apart from the first electrode layer and including at least one second hole not facing the first hole, and a substrate provided on the second electrode layer.

Abstract: An optical scanner includes a first Si layer, a second Si layer, and an SiO2 layer present between the Si layers. The optical scanner includes a movable section and shaft sections formed from the first Si layer, a holding section formed from the second Si layer and disposed to be separated from the movable section, a coupling section formed from the SiO2 layer and configured to couple the movable section and the holding section, and a light reflecting section provided on the upper surface of the holding section and configured to reflect light. The movable section and the coupling section are joined by direct joining.

Abstract: A near-eye optical display system utilizes a compact display engine that couples image light from an imager to a waveguide-based display having diffractive optical elements (DOEs) that provide exit pupil expansion in two directions. The display engine comprises a pair of single axis MEMS (Micro Electro Mechanical System) scanners that are configured to reflect the image light through horizontal and vertical scan axes of the display system's field of view (FOV) using raster scanning. The MEMS scanners are arranged with their axes of rotation at substantially right angles to each other and operate with respective quarter wave retarder plates and a polarizing beam splitter (PBS) to couple the image light into an in-coupling DOE in the waveguide display without the need for additional optical elements such as lenses or relay systems.

Abstract: An apparatus of structured light generation is equipped with a light source and a lens unit. The lens unit is installed in a compact housing of the apparatus of structured light generation. Moreover, the lens unit constructed two different optical path lengths within the housing. By the lens unit, light beams from the light source are collimated and converted into linear light beams. The linear light beams are locally overlapped or globally overlapped. Consequently, the light beam from the light source is shaped into a linear structured light or a linearly-overlapped structured light for detection.

Abstract: A rear-view mirror assembly comprises a fixed base member, a mirror housing that can be rotated relative to the base member, a shaft, an elastic element for applying a force on the base member and the mirror housing through the shaft, shaft axially retaining means, and safety means for preventing the shaft from being released comprising a first and second stop portions formed in the mirror housing and the shaft respectively and arranged such that in different shaft angular positions the first and the second stop portions do not interfere with one another such that the shaft can be inserted in the shaft housing, or the first and second stop portions interfere with one another preventing the shaft from being released from the shaft housing by the action of the elastic element in case of failure of the shaft retaining means.

Abstract: The present invention provides a transparent film with an excellent anti-fog property. The transparent film of the present invention includes: a base film provided on a surface with projections formed at a pitch equal to or shorter than the wavelength of visible light; and hydrophilic fine particles each having a particle size in the range of 15% to 50% of the pitch of the projections, the hydrophilic fine particles being held in gaps between the projections while being in contact with the projections, the hydrophilic fine particles held in the gaps between the projections being separated by spaces from bottoms of the gaps, the spaces forming channels on the surface.

Abstract: The optical unit includes an objective optical system and a splitting element. The splitting element consists of a first right-angle prism, a second right-angle prism, and a third right-angle prism, and has a surface of incidence and an optical splitting surface. The surface of incidence is provided to the first right-angle prism, and the first right-angle prism is positioned such that the surface of incidence is orthogonal to an optical axis of the objective optical system. The optical splitting surface is provided to a boundary of the second right-angle prism and the third right-angle prism. The second right-angle prism has a first optical path and the third right-angle prism has a second optical path. A first optical image and a second optical image are both formed on the same plane, and an area of the first optical image and an area of the second optical image are separated spatially.

Abstract: An electro-optic device includes a chip provided with a mirror and a drive element adapted to drive the mirror, a light-transmitting cover adapted to cover the mirror in a planar view, and a spacer having contact with one surface of the chip between the cover and the chip. The entire part of one surface of the chip having contact with the spacer is made of a first material such as silicon oxide film having first thermal conductivity, and the spacer is made of a second material such as a quartz crystal having second thermal conductivity higher than the first thermal conductivity. The cover is made of a third material such as sapphire having third thermal conductivity higher than the second thermal conductivity.

Abstract: An optical imaging lens includes a first lens of an image-side surface with a concave portion in a vicinity of its optical-axis, a second lens of an object-side surface with a convex portion in a vicinity of its optical-axis, a third lens of an image-side surface with a concave portion in a vicinity of its optical-axis, a fifth lens of negative refractive power and with a thickness along its optical-axis larger than that of the second lens. EFL is the effective focal length of the optical imaging lens, TTL is the distance from the object-side surface of the first lens element to an image plane, ALT is a total thickness of all five lenses, the second lens has a second lens thickness T2 and an air gap G34 is between the third lens element and the fourth lens element along the optical axis to satisfy TTL/EFL?1.000, TTL/G34?12.000 and ALT/T2?12.900.

Abstract: An electro-optic device includes an interconnection board provided with an internal terminal, and a chip mounted on the interconnection board, and the chip is provided with a mirror, a drive element, and a chip-side terminal electrically connected to the drive element. The interconnection board includes a first surface on which an internal terminal is disposed, a second surface located on an opposite side to the first surface, a third surface connecting the first surface and the second surface to each other, and a fourth surface located on an opposite side to the third surface. The interconnection board is provided with a metal member exposed on the first surface and the second surface, and through holes (a first through hole and a second through hole) extending from the third surface to the fourth surface and having contact with the metal member.

Abstract: Implementations of a spherical ornament are provided. In some implementations, the spherical ornament may include a plurality of light reflecting assemblies that are configured to reflect visible light and thereby create a visual phenomenon. In some implementations, the spherical ornament may be used in conjunction with one or more external light sources to create a reflected light display. In some implementations, the spherical ornament may comprise a body portion having a plurality of light reflecting assemblies mounted thereon. In some implementations, each light reflecting assembly may comprise a light reflecting element that is held by a setting. In some implementations, the setting may include a post that is configured to be inserted into the body portion of the spherical ornament and thereby mount the light reflecting assembly thereon.

Abstract: Provided is a vehicular door mirror capable of configuring an engagement structure for holding a folded storage position of a door mirror unit without design problems. When a door mirror unit is rotated from a deployed use position to a folded storage position, a protrusion portion disposed on a groove upper surface of a rotation regulating groove of a bearing portion on the door mirror unit side slidably contacts and rides over, during the rotating process, a protrusion portion disposed on the upper edge of a rotation regulating piece of a shaft until the protrusion portions fall into a mutual engagement, whereby the folded storage position of the door mirror unit is held.

Abstract: A sealing apparatus for a rear-view device, such as an interior or exterior mirror or camera, of a motor vehicle, which sealing apparatus can be arranged between a base part and a head part, which head part can be moved, in particular rotated, in relation to the base part from a home position to at least one fold-down position, comprising at least one sealing element, which can be or is fastened to the base part or to the head part and which can be or is arranged in a sealing arrangement, in which sealing arrangement the sealing element closes a gap between the base part and the head part while lying against the base part and against the head part.

Abstract: An optical device with variable aperture, including a deformable membrane having a central optical area, a support to which a peripheral anchoring area of said membrane is connected, a first cavity filled with a constant volume of a first transparent fluid in a determined range of wavelengths, said cavity being delimited at least in part by a first face of said membrane and a wall of the support. The optical device also includes at least one actuation device of a region of the membrane located between the peripheral anchoring area and the central optical area of the membrane, configured to bend said region of the membrane by application of electrical actuation voltage so as to displace some of the volume of the first fluid towards the center or towards the periphery of the first cavity, said displacement of fluid being intended to deform the central area of the membrane.

Abstract: An optical-dispersion corrected optical-element with a first and a second surface for imaging equal angle quadrilateral focal plane array (FPA). The optical-dispersion element comprises a first nanocomposite-ink with a first nanofiller dispersed in a cured organic-matrix and a second nanocomposite-ink with a second nanofiller dispersed in the cured organic-matrix. Optical-dispersion of the second nanocomposite-ink is different than optical-dispersion of the first nanocomposite-ink. The distribution of the first nanocomposite-ink and second nanocomposite-ink corrects chromatic aberration and creates a refractive gradient that is non-radially symmetric to correct for an image plane array.

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

Abstract: An optical alignment device and a spatial beam splitting prism thereof are provided. The optical alignment device includes a polarized UV light source and a spatial beam splitting prism including a light-transmissive substrate. At least one of top and bottom surfaces of the substrate has a prism structure which is disposed by areas to have at least two refraction directions. When light rays emitted from the polarized UV light source are incident perpendicular to the spatial beam splitting prism, the light rays in a same area are deflected along a same slanting direction after being refracted by the prism structure, and the light rays in neighboring areas are deflected along different slanting directions after being refracted by the prism structure. The invention can achieve the purpose of performing multi-area alignments by only one time UV light irradiation, and also can save production time, reduce production difficulty and thereby increase productivity.

Abstract: An optical system is provided. The optical system includes a corrector lens that is configured to reduce aberrations in electromagnetic radiation (EMR) received from a window having a window axis of symmetry. A rotation mechanism is coupled to the corrector lens, and is configured to selectively rotate the corrector lens about an optical axis of the corrector lens to maintain a Y-axis of the corrector lens in a same plane as the window axis of symmetry of the window.

Abstract: An electromagnetic energy-absorbing optical product useful particularly for automotive and architectural window films is disclosed. The electromagnetic energy-absorbing optical product includes a polymeric substrate and a composite coating with the composite coating including first and second layers each containing a binding group component which together form a complimentary binding group pair.