Newport Corporation

James Fisher

Ken Nguyen

Rick Sebastian

Richard Sebastian

Wen Xu Jin

Paul Huang

Albert Nguyen

A novel optical component mount is disclosed, which includes at least one first mount body with at least one adjustment member traversing through at least one adjustment member passage formed in the first mount body. At least one second mount body is configured with at least one component aperture formed therein and at least one insert receiver formed therein. The insert receiver is configured to receive at least one thermal compensating positioning insert positioned in the insert receiver. The coefficient of thermal expansion of the thermal compensating positioning insert is configured to be equal to the coefficient of thermal expansion of the adjustment member. At least one engaging body is positioned in the thermal compensating insert and engages the adjustment member. The engaging body is configured having a coefficient of thermal expansion less than the coefficient of thermal expansion of the thermal compensating positioning insert and the coefficient of thermal expansion of the adjustment member. At least one biasing system movably couples the second mount body to the first mount body. During use, the combinations of the coefficients of thermal expansion of the components described above, result in minimal changes in position of the optical component mount during changes in ambient temperature.

Thermal compensating optical component mount and related devices

An optical rail system that includes an electronic component mount configured to be mounted on rails between two previously-mounted electronic component mounts without the need of removing one of the two previous-mounted mounts. The electronic component mount includes grooves configured to securely register with respective portions of the rails. The mount further comprises locking devices for securely locking the portions of the rails to the housing within the grooves. The mount additionally includes a dock for securely hosting one or more optical components. Also disclosed is a rail mount for facilitating the mounting the optical rail system to an optical table or other structure. The rail mount includes grooves for securely registering with respective portions of the rails, locking devices for more securely locking the rails within the grooves, and an attachment structure for attaching the rail mount to a post, the post being configured for mounting to an optical table or other structure.

Optical rail system and method using quick-disconnect optical component mounts

The present application discloses an optical post system for use with an optical mount device and includes at least one post body having at least one engaging surface formed thereon, at least one fastener recess configured to receive at least one fastener configured to couple the optical post system to at least one work surface therein formed in the post body, at least one fastener adjustment relief having at least one angled fastener plate positioned therein formed in the post body wherein the fastener adjustment relief is in communication with the fastener via the fastener recess.

Optical component mount device and post system and method of use

An optical mount system that may be adjusted by a variety of devices and methods. In some cases, a post collar assembly may be configured to engage a collar coupling surface of a post holder body such that the post collar engages the collar coupling surface in indexed and predetermined angular positions. In some cases, a base of a post holder body may be configured to accept a secondary base element in the form of a mounting adapter which may be releasably secured the base to provide additional stiffness for the mounting of the base to a reference surface.

Growing community of inventors

Tustin, CA, United States of America

James Fisher