A method of assembling a mirror head for a vehicular interior rearview mirror assembly includes providing a mirror casing, a mirror reflective element at the mirror casing, and a toggle mechanism, which includes a body portion and a toggle lever joined to the body portion. A lower pivot mount of the toggle mechanism is inserted into a lower receiving portion of the mirror casing and an upper pivot mount of the toggle mechanism is inserted into an upper receiving portion of the mirror casing. An outer surface of the body portion corresponds with adjacent outer surfaces of the mirror casing, and, when the toggle lever pivots relative to the lower receiving portion of the mirror casing, the mirror casing pivots relative to the body portion to flip the mirror head between a first orientation and a second orientation.

A first center mirror and a second mirror are each suspended from a main bracket. The second mirror is pivotally connected to a bar which pivotally attaches to the main bracket and also to the second mirror. A third mirror is optionally pivotally connected to an arm pivotally attached to the main bracket. The first mirror is also preferably pivotally attached to an arm which is itself pivotally attached to the main bracket. An adjustably positionable top mirror can also be mounted to the main bracket. A close-up auxiliary mirror can be suspended from one of the other mirrors. Bushings support the arms upon the main bracket and support the mirrors upon the arms, with the bushings including a detent system to hold the mirrors in predefined positions. A person can stand multiple places and have mirrors positioned about the person for viewing different sides at each place.

When producing a mirror as an optical component for an optical system of a projection exposure apparatus for projection lithography, first, an average value of a global gravitational acceleration is determined. Next, a gravitational acceleration difference between the gravitational acceleration at the production location and the gravitational acceleration average value is determined. After a determination of a target surface shape of a reflection surface of the mirror, a mirror substrate is machined at the production location taking into consideration the gravitational acceleration difference in a manner such that, under the influence of the gravitational acceleration average value, a current surface shape of the reflection surface of the mirror substrate does not deviate from the target surface shape by more than a prescribed figure tolerance value (P.sub.max). The result is an optical element with a relatively small figure at a use location of the mirror.

A showerhead that is attached to a shower arm which extends outward from a wall in a shower to support a base and/or a mirror. The base is provided for decorative purposes or to support the mirror. The mirror provides a mirrored surface that can be utilized by a person taking a shower to more safely, efficiently and effectively shave and/or accomplish other grooming tasks. The mirror attaches to the base, directly to the showerhead or to a tubular post that interconnects the showerhead and the base or mirror. Water from the showerhead discharges through the mirror. In either configuration, the mirror is more securely positioned in the shower so it will not drop to the shower floor. Hot water flowing through the mirror reduces fogging of the mirrored surface. In one configuration, the base is made out metal to further reduce the likelihood of fogging.

A sun visor comprises a sun visor body (2) and a vanity mirror assembly (1) comprising a vanity mirror (11) mounted on a support (12). The sun visor comprises a first set of clips (31, 32) configured for snap-fit connection of the vanity mirror assembly (1) onto the sun visor body (2) so that the vanity mirror assembly (1) is held firmly against the sun visor body (2) by the first set of clips, and a second set of clips (41, 42; 51, 52) configured for snap-fit connection of the vanity mirror assembly (1) onto the sun visor body (2) allowing for movement of the vanity mirror assembly (1) in relation to the sun visor body (2). If the snap-fit connection by the first set of clips fails after an impact, the vanity mirror assembly may remain attached to the sun visor body by the second set of clips.

A deployable measurement system for analyzing a rail of a railroad track includes a housing, a reflecting assembly coupled to the housing, a movement assembly coupled to the housing, and an optical measurement system disposed within the housing. Both the housing and the reflecting assembly are moveable between a stored position and a deployed position. The movement assembly includes a deployment assembly that moves the reflecting assembly from the stored position to the deployed position, and a retraction assembly that moves the reflecting assembly from the deployed position to the stored position. The optical measurement system emits and receives light. The reflecting assembly reflects the emitted light toward the rail. The reflecting assembly reflects light reflected off of the rail toward the optical measurement system. The light received by the optical measurement system is used to measure parameters related to the rail.

A rearview mirror structure for vehicle contains: a fixing mount, a rotation unit, a mirror, and a first locking bolt. The fixing mount includes a first connection tab, a second connection tab, and a fixer. The first connection tab has a through orifice, and the second connection tab has a threaded orifice. The rotation unit includes a rotatable seat and at least one abutting element, wherein the rotatable seat has a rotating portion and a connecting portion, and the rotating portion has a first aperture and at least one accommodation groove, wherein the connecting portion has a trough, and the at least one abutting element has a forcing portion with a second aperture. The mirror includes a post having a peripheral trench. The first locking bolt is screwed with the threaded orifice via the through orifice, the first aperture, and the second aperture.

A mirror system including a flat non-magnifying mirror and an inset magnifying mirror provides an installation that is aesthetically pleasing and has reduced susceptibility to damage, for installation in locations such as hotel rooms and hotel bathrooms. The magnifying mirror is inset in an aperture defined by the larger non-magnifying mirror and is either fixed in place by bonding to the edges of the aperture or using a backer, or is extendable from an extension arm that is recessed in a box that extends into a wall behind the mirror system when installed. The extension arm may be a swing arm, a telescoping arm or a scissor arm that is fastened to the back or a side of the box.

The invention includes a handlebar grip, a binding ring, a rod and a mirror. The handlebar grip has a main body and a tubular seat extending from an end of the main body. An outer diameter of the tubular seat is less than an outer diameter of the main body. The binding ring is a C-shaped body around the tubular seat. Two ends thereof are separately formed with a positioning hole and a threaded hole. The rod has a first end and a second end. The first end is formed with a positioning bar being inserted into the positioning hole. The positioning bar has a through hole. A screw passes through the through hole and the positioning hole and is screwed into the threaded hole to make the binding ring fasten the tubular seat. The mirror is pivotally connected to the second end of the rod.

A mixed reality assembly includes a curved mirror, a display apparatus, a motion detection module, and a display control module. The display apparatus is within a focal length of the curved mirror and has a display surface facing the curved mirror. The motion detection module is configured to detect a motion of a real object. The display control module is configured to control a display image on the display surface in response to the detected motion of the real object.