Abstract: One embodiment of the invention disclosed herein provides a system that includes a mirror apparatus with a first surface to which a half-silvered mirror film is applied, where the mirror apparatus transmits a transmitted image from a second surface to the first surface. The system further includes a servo-controlled dimmer that adjusts a level of ambient light associated with the mirror apparatus. The system further includes a motion sensing device that tracks positions of a plurality of points associated with an object; wherein the object is situated on the half-silvered mirror film side of the mirror apparatus. The system further includes a computing device including a memory that stores instructions that, when executed by a processor included in the computing device, cause the processor to control the servo-controlled dimmer to adjust the ambient light such that both the transmitted image and a reflected image is visible on the first surface.

Abstract: A camera-puddle lamp integrated apparatus is disclosed. The apparatus comprising a lens module; an image sensor; a light source; and a translucent mirror, the light source is disposed so that light emitted from the light source intersects an optical axis of the lens module in the first area and disposed in a second area outside the first area, at least a portion of the emitted light is incident to the rear of the lens module by the translucent mirror and projected in front of the lens module through the lens module so that the camera-puddle lamp integrated apparatus operates as a puddle lamp, and image light passes through the lens module from a photographing area and at least a portion of the image light is incident on the image sensor through the translucent mirror so that the camera-puddle lamp integrated apparatus operates as a camera.

Abstract: A backlight unit 10 for an outside mirror of a vehicle may comprise: a light source unit 30 including at least one light source 31 disposed therein; a light processing unit 40 having at least one light passage 41 through which light emitted from the light source 31 passes while being diffused, and a reflective surface 42 for reflecting the light having passed through the light passage 41; and a photorefractive means 60 which is disposed at a light exit of the light processing unit and refracts light emitted from the light exit of the light processing unit to be oriented toward a driver's seat.

Abstract: A visor for use in a vehicle is disclosed. The visor comprises a pivot rod and a carrier arranged over the pivot rod. The visor also comprises a first and second shell being engagable to form a visor body and a vanity arranged therein. The visor also comprises a light base secured to the second shell and a circuit board engaging the light base. The visor also comprises a light emitting diode secured to a surface of the circuit board.

Abstract: A method for manufacturing a color slide for an automobile projection lamp includes: forming a plurality of same color pattern units on a glass substrate, each of the color pattern units being composed of a plurality of color coating layers. The plurality of color coating layers are formed by sequentially depositing materials having different colors on a surface of the glass substrate in accordance with different colors. Finally, the glass substrate is cut and separated in unit of one color pattern unit to form an independent color slide with the color pattern. The color slide can be mounted to an automobile projection lamp system for projecting the color pattern.

Abstract: The automotive safety brake light is a supplemental optical signaling system that generates an illumination visible from the exterior of a vehicle. The automotive safety brake light mounts on a rearview mirror such that the field of illumination of the generated illumination is visible from the anterior side of the exterior of the vehicle. The automotive safety brake light generates the visible illumination when a brake signal from the vehicle indicates that the plurality of brake lights have been activated. The automotive safety brake light comprises a circuit housing and a control circuit. The circuit housing contains the control circuit. The control circuit monitors the brake signal. The control circuit initially generates the illumination as a series of pulses when initially actuated by the brake signal. The control circuit subsequently continuously generates a continuous illumination until the brake signal indicates that the plurality of brake lights are no longer illuminated.

Abstract: A vehicle includes a controller programmed to, responsive to detecting a barcode displayed outside the vehicle via an exterior sensor, decode the barcode, and project an image representing an information decoded from the barcode on a windshield of the vehicle, the image overlaying the barcode from a perspective of a user.

Abstract: An apparatus for use with an electronic communication device having a camera to take a picture or video. The apparatus comprises a base and a first flexible arm extending upward from the base. The apparatus further comprises second and third flexible arms extending upward from the base. The apparatus further comprises a first light source engaged with the first flexible arm and a second light source engaged with the second flexible arm. The apparatus further comprises a body engaged with the third flexible arm having a mirror surface. The apparatus further comprises a fastener directly engagable with the mirror surface and engageable with the communication device to position the camera in front of the mirror surface.

Abstract: A lens assembly, and a method for providing a lens assembly is disclosed herein. The lens assembly includes a first frame piece with a first edge on the direction in which a viewer of the electronic display would face, the first edge forming a first angle with a second edge; a second frame piece with a third edge on the direction in which a viewer of the electronic display would face, the third edge forming a second angle with a fourth edge; a lens with a first lens edge facing the viewer, a second lens edge and third lens edge connected to the first lens edge and forming a lens angle; a first adhesive layer placed between the second edge and the second lens edge to attach the first frame piece to the lens; and a second adhesive layer placed between the fourth edge and the third lens edge to attach the second frame piece to the lens.

Abstract: A blind spot area warning and illustrating device includes a light guiding member including a light output face and a light incident face having grooves. The light guiding member further includes an operating face opposite to the light output face and having reflective faces. Each reflective face is at an acute angle to the light output face. A cover is mounted around the light guiding member. The light output face of the light guiding member is aligned with a light transmitting area of a mirror of a side view mirror. A light emitting diode lamp is mounted in the cover and is aligned with the light incident face. When the light emitting diode lamp is activated to emit light, the grooves diffuse the light emitted by the light emitting diode lamp, and the reflective faces reflect the diffused light to uniformly pass outwardly through the light output face.

Abstract: A projection optical unit for EUV projection lithography has a plurality of mirrors for imaging an object field into an image field with illumination light. At least one of the mirrors is an NI mirror and at least one of the mirrors is a GI mirror. A mirror dimension Dx of the at least one NI mirror in a plane of extent (xz) perpendicular to a plane of incidence (yz) satisfies the following relationship: 4 LLWx/IWPVmax<Dx. A mirror dimension Dy of the at least one GI mirror in the plane of incidence (yz) satisfies the following relationship: 4 LLWy/(IWPVmax cos(a))<Dy.

Abstract: An apparatus for use with an electronic communication device having a camera to take a picture or video comprising a hand mirror comprising a mirror surface. The apparatus further comprises a fastener adapted to engage directly with the mirror surface and the electronic communication device to position the camera in front of the mirror surface. The apparatus further comprises a light source and a control circuit. The apparatus further comprises an input device connected with the control circuit. The input device comprises a first button to activate the camera and a second button to activate the light source.

Abstract: An imaging optical unit for projection lithography has a plurality of mirrors for guiding imaging light from an object field in an object plane into an image field in an image plane along an imaging light beam path. At least two of the mirrors are embodied as GI mirrors. Exactly one stop serves to predefine at least one section of an outer marginal contour of a pupil of the imaging optical unit. The stop is arranged spatially in front of a penultimate mirror in the imaging light beam path. This results in an imaging optical unit that is well defined with regard to its pupil and is optimized for projection lithography.

Abstract: A door (20) with a door access system is movable between an open position and a closed position and includes a first side (20A) and a second side (20B). The door (20) further includes a chamber (48) therein. The door (20) further includes a translucent reflective layer (36) mounted to the first side (20A) of the door (20). An intensity of a reflected portion of light reflected by the translucent reflective layer (36) is greater than an intensity of a transmitted portion of the light transmitted through the second side (20B) to the first side (20A) of the door (20). A door access system (10) is coupled to the door (20) and includes a door access control device (50) mounted in the chamber (48) of the door (20). The door access control device (50) is configured to control opening of the door (20).

Abstract: An illumination device for infinite mirroring, has a lighting module. A light-guiding frame guides a first light source of the lighting module to form light-guiding light source. The lower mirror reflects the light-guiding light source to form a reflection light source reflecting mirror images. The light-guiding ring has a light-guiding surface. The reflection light source incident on the light-guiding ring uniformly scatters to the light-guiding surface to form a ring-shaped light source. The lower mirror uses a first hollow interruption element to interrupt a part of the reflection light source to form a spaced layered light source. The upper mirror simultaneously reflects the ring-shaped light source and the spaced layered light source and uses the second hollow interruption element in the hollow cover to interrupt the ring-shaped light source to form a multilayered mirroring light ring.

Abstract: A system for a vehicle includes a seat belt height adjuster and a sensor configured to determine eye location of a driver of the vehicle. A control module is in communication with the sensor and the seat belt height adjuster. The control module is programmed to adjust a position of the seat belt height adjuster based at least on the eye location.

Abstract: A wirelessly enabled content delivery apparatus includes a surface. The surface has a front side and a back side. An electronics board has a through hole. A conductive touch pad layer is placed between the back side of the surface and the electronics board. The electronics board further includes a conductive element. The conductive element passes through the through hole. A wireless data module is part of a wireless data system. The wireless data system is attached to the electronics board and the wireless data module is electrically connected to a first end of the conductive element. The electronics board is coupled to the back side of the surface and is aligned so that a second end of the conductive element is in electrical contact with the touch pad layer.

Abstract: An automobile includes a rearview mirror, a motor electrically coupled to the rearview mirror, an image capturing unit configured to capture a number of images of a face of a driver in real time, a light detecting unit configured to detect light on the rearview mirror, a storage unit configured to store a preset value of light intensity, and a processing unit configured to execute an automatic adjusting system to adjust a position of the rearview mirror when one of a number of conditions is met. The number of conditions include a position of eyes of the driver changes, and light exceeding the preset value of intensity enters into the eyes of the driver.

Abstract: A stop light and turn signal lights which are incorporated into large vehicles such as a tractor trailer. A mating rear prong which is plugged into the electronics on the back of the vehicle which in turn is connected to the turn signal device usually on the steering wheel of the vehicle. The lights will first be lit on the first column of lights, then immediately the second column of lights, then immediately the third column of lights, then immediately the fourth column of lights and finally the fifth column of lights so that the device signals in a pattern from left to right that the vehicle is making a right turn or signals from right to left that the vehicle is making a left turn. When all lights are lit, it indicates a stop.

Abstract: A method for remotely controlling a big rig comprises a tractor unit and one or more trailers coupled to the tractor unit, wherein the tractor unit comprises a drive train which can be electronically actuated by the control of the tractor unit and by way of which the tractor unit can be driven automatically. The control of the tractor unit have a wireless communication link to a touchscreen device so that automatic driving of the big rig can be remotely controlled by way of the touchscreen device during which at least one articulation angle between a longitudinal axis of the tractor unit and a longitudinal axis of the trailer is continuously regulated.

Abstract: Two pieces of elliptic semi-sphere surfaces, each forming a pinhole at the zenith thereof and also forming a reflection mirror on an inside thereof are stuck onto each other, with facing the interior surfaces thereof, respectively. A light ray entering therein from one of the pinholes, after being reflected between the elliptic semi-sphere surfaces facing to each other, emits from the pinhole on opposite side at an angle plane symmetric to the incident angle. Disposing the elliptic semi-sphere surfaces facing to each other, aligning on a plane, by plural numbers thereof, there is built up a pinhole array. Plural numbers of light rays reflecting on and/or emitting from a display object, which is disposed on one side of the pinhole array, after passing through the plural numbers of pinholes of the pinhole array, form an image at a position plane symmetric thereto, on the opposite side of the pinhole array.

Abstract: Methods for maximizing a fraction of light energy absorbed in each of three classes of light concentrators (rectangular parallelepipeds, paraboloids and prisms) by choice of incident angle of radiation and of one or more geometrical or physical parameters (absorber thickness, paraboloid dimensions, location of paraboloid focus, prism angles, concentrator material, cladding, prism angles, etc.). Alternatively, the light energy absorbed plus the light energy that escapes through non-total internal reflection within the light concentrator can be minimized.

Abstract: A system and/or apparatus provided as a side-view or rear-view mirror for providing a plurality of independently moveable reflective surfaces to enable a driver increased visibility. To increase visibility for the driver, the system and/or apparatus includes a camera for providing images around a vehicle to the driver within a vehicle during low-light or poor lighting conditions.

Abstract: One embodiment of the invention disclosed herein provides a system that includes a mirror apparatus with a first surface to which a half-silvered mirror film is applied, where the mirror apparatus transmits a transmitted image from a second surface to the first surface. The system further includes a servo-controlled dimmer that adjusts a level of ambient light associated with the mirror apparatus. The system further includes a motion sensing device that tracks positions of a plurality of points associated with an object; wherein the object is situated on the half-silvered mirror film side of the mirror apparatus. The system further includes a computing device including a memory that stores instructions that, when executed by a processor included in the computing device, cause the processor to control the servo-controlled dimmer to adjust the ambient light such that both the transmitted image and a reflected image is visible on the first surface.

Abstract: A reflective imaging element that may be manufactured in a convenient method and obtain a high quality aerial picture is provided. A reflective imaging element of an embodiment includes a first reflective element and a second reflective element including a light receiving surface to receive light from a projected material and an emitting surface, parallel to the light receiving surface, to emit the light from the projected material. When a ratio of light contributing to imaging out of the light from the projected material is defined as a ratio of amount of light and an incident angle of the light from the projected material when the ratio of amount of light is highest to the light receiving surface is defined as a maximum incident angle, the maximum incident angle of the first reflective element and the maximum incident angle of the second reflective element are different from each other.

Abstract: A light collection systems with at least one light receiving element, such as a window, a photovoltaic element, a heating element, a light guiding element or combinations thereof, and at least one light reflector-deflector element. The light reflecting elements include a front light receiving surface, a rear surface, and a transparent volume, disposed between the front light receiving surface and the rear surface, the transparent layer being of a higher refractive index than of its surrounding. The transparent volume comprises an asymmetric pattern which is configured to at least partially reflect light by internal reflection and direct the light within the element, reflect some light off said front light receiving surface, reflect, deflect and guide light within the light reflector-deflector element; and direct light through the front light receiving surface towards the at least one light receiving element.

Abstract: An optical system and method to overcome luminescent solar concentrator inefficiencies by resonance-shifting, in which sharply directed emission from a bi-layer cavity into a glass substrate returns to interact with the cavity off-resonance at each subsequent reflection, significantly reducing reabsorption loss en route to the edges. In one embodiment, the system comprises a luminescent solar concentrator comprising a transparent substrate, a luminescent film having a variable thickness; and a low refractive index layer disposed between the transparent substrate and the luminescent film.

Abstract: An apparatus includes a first mirror platform; the first mirror platform has a first portion and a second portion. A media display device is disposed behind the first mirror platform, such that within the second portion information displayed on the media display device is visible when the media display device is on and is viewed from in front of the first mirror platform. A mounting platform is coupled to a back of the first mirror platform to form a door assembly and the mounting platform can also be a mirror platform.

Abstract: A combination mirror and media display device assembly is provided. The combination mirror and media display device includes a mirror platform having a media display device viewing area and a media display device coupled to the mirror platform. The media display device is positioned to display images through the media display device viewing area.

Abstract: To provide a half mirror front plate which has luminous transmittance and luminous reflectance enough to function as a half mirror for display, provides color tones of transmitted light and reflected light close to neutral (visually white), and is excellent in productivity. A half mirror front plate for display includes a stack consisting of a transparent substrate and a half mirror stacked film arranged on one principal surface of the transparent substrate, wherein the half mirror stacked film has a first transparent oxide layer with a thickness of 45 nm to 70 nm made of a first metal oxide, a metal layer with a thickness of 30 nm to 45 nm mainly made of silver, and a second transparent oxide layer with a thickness of 45 nm to 70 nm made of a second metal oxide in order from the transparent substrate side.

Abstract: Systems and methods for improving the performance of one way mirror applications are disclosed. Methods consistent with the present disclosure include introducing a glass substrate into a processing chamber. The processing chamber comprises a sputter target assembly disposed over the substrate. Next, depositing metal silicide material within a plurality of site-isolated regions on the substrate to form a metal silicide coating within each region. Notably, each metal silicide coating has a thickness between 0.001 and 0.5 microns. Finally, evaluating results of the metal silicide coating formed within the plurality of site-isolated regions.

Abstract: An optic obscuration assembly, a system and method for working on an optical element, and the resulting optical element are described herein. In one example, the system and related components (e.g., optic obscuration assembly, positioning system, and coating system) allow the accurate placement of a very round thin metal obscuration (e.g., thin metal disk) in the center of a front surface of the optical element before a high reflective thin film coating is applied to the front surface. Once, the optical element has had the high reflective thin film coating applied thereto then the thin metal obscuration is removed to reveal a transmissive aperture.

Abstract: An optical element includes a metal layer having a thickness in a first direction; metallic particles spaced apart from the metal layer in the first direction; and a light transmitting layer separating the metal layer from the metallic particles. The metallic particles are disposed in a lattice shape in a second direction orthogonal to the first direction and in a third direction orthogonal to the first direction and the second direction. A distance between adjacent metal particles in the second and third directions is S, and 6 nm<S<40 nm.

Abstract: An optical element includes a metal layer in which a first direction is a thickness direction; metallic particles provided to be spaced from the metal layer in the first direction; and a light transmitting layer that separates the metal layer from the metallic particles, in which the size T of the metallic particles in the first direction satisfies a relationship of 3 nm?T?14 nm, and the size D of the metallic particles in a second direction orthogonal to the first direction satisfies a relationship of 30 nm?D<50 nm.

Abstract: An article for use in an OCT method, the article comprising a solid substrate and nanoparticles dispersed in or on the substrate in at least one light transmissive portion of the article such that the nanoparticles result in an increased extinction of the light transmissive portion along a transmission direction of the light transmissive portion compared to the substrate being free of nanoparticles. The extinction of the light transmissive portion along the transmission direction is less than 6, wherein the extinction is defined as a negative decadic logarithm of a ratio of an intensity of light which is transmitted through the light transmissive portion to an intensity of light which is incident on the light transmissive portion, wherein the light is in at least one of a visible and a near infrared wavelength range.

Abstract: Embodiments relate to mirrors having a reflective layer of or including silicon aluminum (e.g., SiAl). The mirrors may be first surface mirrors, or second surface mirrors. The SiAl layer may be provided between dielectric layers. The mirrors may be flat or bent in different instances, and may or may not be heat treated. In certain example instances, such mirrors may be used in interior residential, commercial, appliance, and/or other applications.

Abstract: A field facet mirror for an illumination optics of a projection exposure apparatus for EUV microlithography transmits a structure of an object arranged in an object field into an image field. The field facet mirror has a plurality of field facets with reflection surfaces. The arrangement of the field facets next to one another spans a base plane. Projections of the reflection surfaces of at least two of the field facets onto the base plane differ with respect to at least one of the following parameters: size, shape, orientation. A field facet mirror results which can ensure a uniform object field illumination with a simultaneously high EUV throughput.

Abstract: A single-substrate mirror element defined by a transflective metal layer—non-metal layer—metal layer coating disposed on the first surface of the substrate and enabled to meet the requirements of operation in an exterior rearview assembly and to provide for stealthy appearance of a light source of the assembly disposed behind the mirror element. The appearance of the mirror element, defined in parameters of the CIELAB color system, is substantially color-neutral, while tuning of reflectance and transmittance characteristics can be achieved substantially independently from one another. Reflectance value and measure of color content of light specularly reflected by the mirror at non-zero angles remains substantially stable within wide range of angles.

Abstract: An optical device for forming an image of an object, comprising: a semitransparent mirror surface disposed on an optical path of the image of the object; and a light projection unit configured to project light to the semitransparent mirror surface and thereby to combine, on the optical path, the projected light transmitting through the semitransparent mirror surface with the image of the object reflecting from the semitransparent mirror surface, wherein: a first wavelength region is defined in a visible light region to include a wavelength of the projected light; the semitransparent mirror surface has a substantially flat reflectance property within a second wavelength region which is defined in the visible light region not to include the first wavelength region; and transmissivity of the semitransparent mirror surface at the wavelength of the projected light is higher by 10% to 50% than transmissivity in the second wavelength region.

Abstract: A display panel assembly and an electronic device including the assembly are disclosed. In one aspect, the assembly includes a window cover including a display area and a non-display area and a display panel disposed on a location of a rear surface of the window cover corresponding to the display area. The assembly further includes a dielectric mirror layer disposed on a location of the rear surface of the window cover corresponding to the non-display area which selectively reflects light incident through the window cover to provide a metallic color sense to a user and a light absorbing layer absorbing light transmitted through the dielectric mirror layer.

Abstract: An optical mirror element includes an optically transmissive element having a first surface and a second surface, and a reflective coating layer on the first surface that defines a mirror surface. A first portion of the first surface does not include the reflective coating layer such that the first portion defines an optically transmissive window in the mirror surface. Q method of forming an optical mirror element having a window portion includes providing an optical element, masking a first portion of a first surface of the optical element, and thereafter applying a reflective coating to the first surface so as to define a reflective surface, wherein the masked portion defines a transmissive region in the reflective surface. The exposed portion of the first surface may be coated with an anti-reflective coating, either before or after the reflective coating is applied.

Abstract: The invention relates to a disk (1) which is made of glass or plastic, which is suitable for transparency, and on which reflective surface patterns (2) are provided for advertising purposes. The disk (1) is designed as a composite of multiple individual disks (3, 4), and one or more reflective regions (5, 6) are provided on each of the individual disks (3, 4). The invention also relates to a method for producing the disk (1) according to the invention.

Abstract: According to a flare measuring method in an embodiment, a reflective mask, in which one reflective coordinate in a slit direction in a mask surface is determined when one scanning coordinate is determined, is placed on a scanner that includes a reflective projection optical system. Moreover, a light intensity of the exposure light is measured by performing a scanning exposure on an illuminance sensor moved to a predetermined position in the slit direction in a slit imaging plane. Then, an amount of flare at an intra-slit position corresponding to a position of the illuminance sensor in the slit direction is calculated by using a light intensity of exposure light received from an intra-slit position that does not correspond to the position of the illuminance sensor in the slit direction in the exposure light.

Abstract: A rearview mirror assembly for a vehicle includes an electro-optic mirror reflective element having a front glass substrate and a rear glass substrate, with no portion of the rear glass substrate extending beyond any portion of the front glass substrate. The reflective element includes a perimeter band disposed around a perimeter border region of a second surface of the front glass substrate. The perimeter band generally conceals the presence of a perimeter seal from view by the driver of the vehicle. A plastic molding may be circumferentially disposed about the circumferential edge of the front glass substrate without overlapping onto the first surface of the front glass substrate. The outermost part of the plastic molding may lack a sharp edge. The plane of the first surface of the front glass substrate may be generally flush with the outermost part of the plastic molding.

Abstract: A microscope cube includes a housing including a first opening on a first wall of the housing and a second opening on a second wall of the housing, the first wall adjacent to the second wall; an excitation filter disposed within the first opening; an emission filter disposed within the second opening; and a dichroic mirror positioned within the housing. In one aspect, the dichroic mirror has a thickness greater than or equal to 1.5 mm. In another aspect, the excitation filter is positioned at an angle relative to the first wall of the housing.

Abstract: An optical collector is disclosed which includes an imaging, aplanatic optical element having a front surface with a one-way light admitting portion, a back surface with a reflective portion, and an interior region of refractive material disposed between the front and backs surfaces.

Abstract: The present invention provides a light-transmitting member that not only exhibits high antiglare properties but also shows a transmission image with a sharp outline. A reflecting surface of a light-transmitting member formed of an optically transparent material, for example, a glass plate, has minute hubbly surface profile formed therein by blasting the reflecting surface with an abrasive or the like to mill the surface. The minute hubbly surface profile in the reflecting surface are formed so that, when the reflecting surface is divided into minute compartments of a prescribed size and a histogram is constructed on the basis of measurement values obtained by measuring the height in each compartment, the probability density of the mode in the histogram is 10 to 30%, and the variance (?2) in the histogram, calculated on the basis of the heights, is less than 0.4 (?m2).

Abstract: A mirror having a first substrate and a reflective film formed on the first substrate, the reflective film made of mercury and at least one metal, wherein the mirror is operative such that light incident upon the first substrate and having an intensity that falls below a fluence threshold is reflected by the reflective film, and light incident upon the first substrate and having an intensity that exceeds the fluence threshold passes through the reflective film.

Abstract: A scale of an absolute encoder, on which a plurality of marks are arranged at predetermined pitches along at least one direction, includes: a base including a plurality of light-reflective or light-transmissive marks arranged at the predetermined pitches along the at least one direction. A film, which attenuates light, is formed on each of marks as a part of the plurality of marks.

Abstract: A display device includes a substrate having an upper surface. The display device also includes a light reflecting layer to reflect light, formed over the upper surface of the substrate. The display device also includes a light absorbing layer to absorb light, formed over the upper surface of the light reflecting layer. A plurality of apertures are defined through the light reflecting layer and the light absorbing layer such that, at an edge of each of the plurality of apertures, the light absorbing layer partially overhangs the light reflecting layer.