974 results about "Mirror mount" patented technology

A laser scanning module employs a scan mirror and magnet rotor subassembly supported by a stator structure using a pair of elastomeric wheel hinges. The scan mirror and magnet rotor subassembly includes: a scan mirror and magnet rotor subassembly having a rotor frame having a pair of rotor support posts aligned along a scan axis passing through the rotor frame; a scan mirror mounted on the rotor frame; and a permanent magnet mounted on the rotor frame. The elastomeric wheel hinge includes a central portion having an aperture for passage and fixed attachment of one rotor support post, a plurality of elastomeric spoke portions extending from the central portion and radially extending from the central aperture to a circumferential rim portion connected to the outer end portion of each spoke portion so as to form the elastomeric wheel hinge.

A vehicular rain sensor mounting system comprises a module assembly adapted for attachment to an attachment member on the inner surface of a vehicle windshield. The module assembly comprises a first side configured to be generally adjacent the inner surface of the vehicle windshield and a second side generally opposing the first side. A rearview mirror assembly mounting member is provided at the second side. The system further comprises a rearview mirror assembly having a mirror mount adapted for attachment to the rearview mirror assembly mounting member provided at the second side of the module assembly. The module assembly includes a rain sensor having a detecting surface. The detecting surface of the rain sensor contacts the inner surface of the windshield when the module assembly is attached to the attachment member on the inner surface of the vehicle windshield.

A vehicular headlamp includes at least one a light source irradiating visible light and a lens allowing the visible light from the light source to pass through to forward of a vehicle. The light source and the lens are mounted in a rotating element. Alternatively, the vehicular headlamp includes at least one a light source irradiating visible light, and a mirror mounted on a rotating element and arranged to reflect the visible light from the at least one light source to forward of a vehicle. The vehicular headlamp also includes a scanning actuator for reciprocatingly rotating the rotating element so as to form a light distribution pattern forward of the vehicle and a light distribution control portion for controlling the scanning actuator such that a portion of the light distribution pattern is relatively bright.

A method and apparatus for laser light pulse stretching is disclosed which may comprise a beam splitter in the path of a laser output light pulse beam; selected to pass a first percent of the energy of a first input pulse of the laser output light pulse beam along a laser output light pulse beam output path as a first output pulse and to reflect a second percent of the energy of the laser output light pulse beam into a first delayed beam; an optical delay path receiving the first delayed beam and returning the first delayed beam to the beam splitter in an orientation such that a third percent of the first delayed beam is reflected into the output path as a second output pulse and a fourth percent is passed into the optical delay path as a second delayed beam; the optical delay path receiving the second delayed beam and returning the second delayed beam to the beam splitter in an orientation such that the third percent of the second delayed beam is reflected into the output path as a third output pulse and the fourth percent of the second delayed beam is passed into the optical delay path as a third delayed beam; the optical delay path receiving the third delayed beam and returning the third delayed beam to the beam splitter in an orientation such that the third percent of the third delayed beam is reflected into the output path as a fourth output pulse; the first input pulse being a first pulse in a plurality of pulses output from a prior pulse stretcher, each of a plurality of succeeding input pulses comprising the output of the prior pulse stretcher resulting from the stretching of a narrow band laser light output pulse, forming successive first, second, third and fourth output pulses, the combination of which forms a pulse stretcher having an output with TIS of at least 200 ns. The optical delay path may be formed of a plurality of at least eight reflecting mirrors and contained in an elongated enclosure having first and second end plates mounting a first group of at least four of the at least eight reflecting mirrors mounted on the first mounting surface symmetrically about a center axis of the optical delay path and a second group of at least four of the at least eight reflecting mirrors mounted on the second mounting surface symmetrically about the center axis. The mirrors may be staggered in a predefined pattern, e.g., a circular pattern. The delay path may lie in a plurality of planes. The apparatus may be part of a laser system, part of a beam delivery system or an interface between the two.

A device for inserting a lens into an eye has a grip body (1) with a lens holder (13) for holding the lens, and a plunger (2) which can be displaced in the grip body (1) for guided insertion of the lens into the eye. A ball-bearing bush (3) is arranged in the grip body (1), the plunger (2) being mounted so as to be laterally displaceable in this ball-bearing bush (3). This allows the device to be operated using one hand, said device additionally having good slide properties and permitting an at all times guided lateral or rotational movement of the plunger.

An interior rearview mirror assembly for vehicles incorporates a rearview mirror mount, a rearview mirror, and a rearview mirror support. The support is pivotally attached to the mirror mount by a first pivot element, and to the rearview mirror by a second pivot element. The mirror mount, support, a rearview mirror housing, and the pivot elements are each formed by molding from polymeric material having a respective color. In various embodiments, the colors may all be substantially the same, such as black, gray, tan, brown, burgundy, green, or another color, or may be different. In one form, the rearview mirror housing includes at least one electrical accessory. Electrical conductors may extend through the pivot elements and mirror support to the rearview mirror housing to provide an electrical connection for the electrical accessory to the vehicle electrical system. The pivot elements preferably include ball pivot members and sockets on various of the mirror mount, support and rearview mirror housing, and may include surfaces for enhanced frictional resistance to pivotal movement. In one form, the rearview mirror mount preferably includes receiving members which release the assembly from a windshield attachment member when sufficient force is applied such as upon impact.

A micro-mirror device includes a stator structure having a set of radial stator electrodes, a rotor structure having a set of radial rotor electrodes, a mirror mounted on the rotor structure, and a flexure structure suspending the rotor structure relative to the stator structure. 100111168 1

One embodiment is directed to a mirror device (for a device such as an optical switch, scanner or projector) having a movable mirror structure with an attached magnet. The mirror structure is movably mounted on a base structure, which includes an actuation coil for controlling movement of the mirror structure. Another embodiment is directed to a mirror device (in a device such as an optical switch, scanner or projector) having a high mirror fill factor. The device includes a mirror mounted on a support member, which is connected to a gimbal frame. The support member includes an enlarged portion configured to at least partially extend over the gimbal frame. The mirror substantially covers the enlarged portion of the support member, thereby providing the device with a high mirror fill factor. A further embodiment is directed to a mirror support structure for a movable mirror device (in a device such as an optical switch, scanner or projector). The mirror support structure includes a post member and an enlarged lid member, one of which includes a plurality of holes and the other of which includes a corresponding plurality of projections. The post and lid members are assembled by positioning the projections in the corresponding holes.

A light emitting mirror assembly for a vehicle is intended to side mount to the vehicle and includes a support element that provides a backing for the mirror and a trim portion that encompasses at least in part the perimeter of a mirror. The trim portion has a transparent or translucent light source housing cavity. A light source is disposed in the light source housing cavity and electrically connected to the vehicle such that light is emitted from the light source in response to an activation signal. A trim portion can include multiple light source housing cavities each of which can contain one or more light sources. The illuminated trim ring offers a mirror mounted turn signal indicator, puddle light, brake light, or decorative displays without resort to modifying the mirror face or reflections from the mirror face.

An apparatus comprises a moveable arm for positioning an optical transducer adjacent to a storage medium, a stationary light source, and a moveable mirror mounted at a pivot axis of the arm for reflecting light from the light source to the optical transducer. An actuator can be provided for rotating the moveable mirror through an angle of about one half of an angle of rotation of the moveable arm.

A light source along the mirror mounting arm of a school bus or other passenger vehicle to reduce the risk of people or other objects being injured by the school bus. The light source may be mounted directly on the mirror mounting arm or embedded within a mirror mount. The light source may be focused downward to illuminate the ground and may provide vehicle status information and guiding information. Additionally the light source may sweep the ground back and forth or be directed under the control of the driver. The light source may be activated automatically when movement is detected near the vehicle.

An ultraviolet (UV) detector for detecting and verifying the authenticity of documents placed therein and exposed to ultraviolet light and ambient (white light) backlighting. The UV detector includes a detector housing, and a viewing chamber having a viewing mirror mounted therein for viewing documents. The detector housing also includes a document insertion slot for inserting documents into the viewing chamber adjacent to the viewing mirror. The detector housing further includes an LED holder for holding one or more LED's therein to provide a source of UV light in the viewing chamber which is transmitted to the viewing mirror and to the documents for identifying UV activated features on the documents, including UV holographic images and / or UV activated inks on the documents that are illuminated. The user looks into the viewing chamber for viewing the UV activated features on the viewing mirror. Additionally, the detector housing includes a translucent member disposed therein for diffusing visible white light. The UV detector includes a printed circuit board (PCB) for holding at least one LED to provide a source of visible white light in the detector housing which is transmitted to the translucent member for diffusing the visible white light for identifying watermarks on the documents that are illuminated. The user looks into the viewing chamber at the viewing mirror which reflects the identified watermarks to the user. Also, the placement of the viewing mirror increases the illumination area of the 365 nm UV light source in order to reduce the size of the detector housing.

An exterior accessory assembly or module for a vehicle door assembly comprises an exterior rearview mirror and / or door cap assembly, which may further include a cover member, a door handle, window frame, window seal and / or an exterior rearview mirror assembly. The vehicle door assembly includes a door frame, which includes a cap and / or mirror mounting region, a lock and / or latch mechanism, a mirror connector, electronic controls, regulators, trim pieces, and / or the like, and is mountable to a vehicle at the vehicle assembly plant as a single unit. The exterior rearview mirror and / or the cap assembly may mount to the modular door and provide an exterior rearview mirror, a window frame and / or door handle. The exterior mirror and / or cap assembly and door frame may include corresponding electrical connectors for connecting electrical accessories of the accessory module to a door wiring or harness.

The invention discloses a high-precision large-caliber electric reflecting mirror frame based on an orthogonal axis, relates to an electric reflecting mirror frame, and aims to solve the problems that the process of guiding the transmission direction of a large-caliber laser beam is not precise enough and is not easily controlled, and collimated guide and near-field adjustment for the laser beam are poor in flexibility. A rack is connected with a pitching shaft frame through a rotation shaft, the pitching shaft frame is used for adjusting pitching angles relative to the rack, the pitching shaft frame and the rotation shaft are connected with a deflection shaft frame, the deflection shaft frame is used for adjusting deflection relative to the pitching shaft frame, a transverse positioning barrier strip is close to the inner side surface of a transition frame, an axial positioning barrier strip is close to the inner side surface of a second positioning frame, a mini-driver output end of a pitching shaft micro-actuator is connected with the pitching shaft frame through a pitching connection block, and a mini-driver output end of a deflection shaft micro-actuator is connected with the deflection shaft frame through a deflection connection block. The high-precision large-caliber electric reflecting mirror frame is used for a light beam guide system of an inertial confinement laser fusion device or other optical path adjustment systems needing large calibers.

A sensor-mirror arrangement on a windshield of a motor vehicle with an optical sensor that is fastened on the windshield in an edge region arranged between a free field of vision of the windshield and vehicle roof, and with an inside rearview mirror that is fastened using a mirror mounting in an upper edge region between the sensor and the vehicle roof. The mirror mounting has a first fastening element that interacts with a complementary second fastening element for fastening the inside rearview mirror, which is constructed with a mirror base of the inside rearview mirror. The mirror mounting moreover has a pedestal fastened on the windshield on its side facing away from the windshield the first fastening element is formed. The pedestal is dimensioned so that the mirror base fastened to the mirror holding has a predetermined distance from the windshield, which is greater that a minimum distance if need be required for the installation and / or function of the mirror base.

The present invention relates to an endoscopic visioning system and related method for both forward and backward viewing of a body lumen. According to an embodiment, the system includes an endoscope, a vision head including a light source and a vision chip on both a proximal and a distal side of the vision head, and an extension arm for moving the vision head away from and back toward the endoscope. Alternatively, the light source and vision chip may be contained in a distal end of the endoscope. In such an alternative embodiment, the vision head is a parabolic mirror mounted on the extension arm for reflecting images, for example, from behind the distal end of the endoscope to the vision chip in the distal end of the endoscope to permit, for example, a retrograde view of the surgical site entrance.

A rearview mirror assembly comprises a reflective element, preferably fabricated of a lightweight, rigid, high-strength plastic and a relatively thin reflective film conformably attached thereto. A portion of the reflective element can also comprise a convex surface for monitoring the “blind spot” typically experienced by the driver. A mirror-mounted light assembly, such as for turn signals, can be incorporated into the reflective element. The mirror assembly can also comprise a chromomorphic polymeric element in planar alignment with the reflective element, which can be electrically and / or thermally activated. The chromomorphic polymeric element can change its resident color between transparent and a predetermined activated color to provide a dimming function as a characteristic of the particular chromomorphic polymeric element that is employed.

Disclosed is an apparatus to adjust position of a mirror in projector. The mirror position adjusting apparatus includes a mirror, a mirror plate on which the mirror is seated, and a mirror mounting part located in the inside of the projector for adjusting the position of the mirror plate. The mirror position adjusting apparatus according to the present invention can adjust change in position of the mirror occurred due to transformation of plastic by a structure of the projector, which generates intense heat, thereby improving quality of image formed on a screen.

Laser lines at 635 nm or longer (ideally 647 nm) are preferred for red, giving energy-efficient, bright, rapid-motion images with rich, full film-comparable colors. Green and blue lines are used too—and cyan retained for best color mixing, an extra light-power boost, and aid in speckle suppression. Speckle is suppressed through beam-path displacement—by deflecting the beam during projection, thereby avoiding both absorption and diffusion of the beam while preserving pseudocollimation (noncrossing rays). The latter in turn is important to infinite sharpness. Path displacement is achieved by scanning the beam on the liquid-crystal valves (LCLVs), which also provides several enhancements—in energy efficiency, brightness, contrast, beam uniformity (by suppressing both laser-mode ripple and artifacts), and convenient beam-turning to transfer the beam between apparatus tiers. Preferably deflection is performed by a mirror mounted on a galvanometer or motor for rotary oscillation; images are written incrementally on successive portions of the LCLV control stage (either optical or electronic) while the laser “reading beam” is synchronized on the output stage. The beam is shaped, with very little energy loss to masking, into a shallow cross-section which is shifted on the viewing screen as well as the LCLVs. Beam-splitter / analyzer cubes are preferred over polarizing sheets. Spatial modulation provided by an LCLV and maintained by pseudocollimation enables imaging on irregular projection media with portions at distinctly differing distances from the projector—including domes, sculptures, monuments, buildings; waterfalls, sprays, fog, clouds, ice; scrims and other stage structures; trees and other foliage; land and rock surfaces; and even assemblages of living creatures including people.

This invention discloses a sunlight collecting device composed of a two-dimensional tracer, optical collector, an indirect reflector, two-dimensional adjust reflector, reflecting mirror mounted outside of a window of a place necessary for collecting light, solar energy photo-voltaic battery, photosensitive sensor, coder and central controller. After the optical collector collects direct sunlight,the indirect reflector corrects it to be parallel light to be reflected to a definite place and reflected indoor by the reflection mirror. The device motion is controlled by the central controller and a coder is mounted on the operating motor to record the motor operation angle.

An ultraviolet (UV) detector for detecting and verifying the authenticity of documents placed therein and exposed to UV light and white light backlighting. The UV detector includes a detector housing, and a viewing chamber having a viewing mirror mounted therein for viewing documents. The detector housing also includes a document insertion slot for inserting documents into the viewing chamber adjacent to the viewing mirror. The detector housing further includes an LED holder for holding one or more LED'S to provide a source of UV light in the viewing chamber which is transmitted to the viewing mirror and to the documents for identifying UV activated features on the documents. Additionally, the detector housing includes an LED and translucent member disposed therein for providing diffuse visible white light for identifying watermarks on the documents. A user looks into the viewing chamber for viewing the UV activated features and watermarks on the documents.

A micro-electro-mechanical (MEMs) mirror device for use in an optical switch is disclosed. A “piano”-style MEMs device includes an elongated platform pivotally mounted proximate the middle thereof by a torsional hinge. The middle portion of the platform and the torsional hinge have a combined width less than the width of the rest of the platform, whereby several of these “piano” MEMs devices can be positioned adjacent each other pivotally mounted about the same axis with only a relatively small air gap therebetween. In a preferred embodiment of the present invention specially designed for wavelength switching applications, a greater range of arcuate motion for a mirror mounted thereon is provided by enabling the platform to rotate about two perpendicular axes. The MEMs mirror device according to the preferred embodiment of the present invention enables the mirror to tilt about two perpendicular axes, by the use of an “internal” gimbal ring construction, which ensures that a plurality of adjacent mirror devices have a high fill factor, without having to rely on complicated and costly manufacturing processes.

A mirror mounting assembly for mounting a mirror on a vehicle bulkhead. The assembly includes a mirror element and a main support arm having a first end and a second end. The mirror element is connected to the first end of the main support arm. The second end of the main support arm is mountable to the vehicle. A pair of brackets are configured to conform to an engine bay side wall of the vehicle. Each bracket has a center portion and two laterally extending flanges that extend at an angle from the center portion in opposite directions. One of the flanges of each bracket is connectable to the bulkhead of the vehicle in the engine bay. A first additional support arm has a first end connected to a first one of the brackets and a second end connected to the main support arm. A second additional support arm has a first end connected to the main support arm and a second end connectable to the vehicle. Finally, a third additional support arm has a first end connected to the main support arm and a second end connectable to the vehicle.