170 results about "Optical mount" patented technology

Aspects of the present disclosure relate to mounting electronics and optical systems in head-worn see-through computer displays. In embodiments, a head worn computer includes an optical chassis with a rigid open box structure configured to provide a stable optical mounting reference plane and a plurality of image source reference planes. The head worn computer further includes a first image source mounted on one of the image source reference planes to project first image light through a first hole in the optical mounting reference plane and a second image source mounted on a second of the image source reference planes and configured to project second image light through a second hole in the optical mounting reference plane. An outer frame holds the optical chassis such that, when worn by a user, the first and second image light is aligned with the eyes of the user.

An optical mounting assembly, such as a lens cell assembly, method for making a lens cell assembly, and method for supporting a lens in the lens cell assembly are provided to kinematically mount an optical element to an optical holder. The optical mounting assembly includes an optical element having a plurality of mounting pads distributed around an outer circumference of the optical element, and an optical holder having a corresponding plurality of clamping brackets distributed around an inner circumference of the optical holder. The optical holder supports or constrains movement of the optical element at points of contact between the plurality of mounting pads and the corresponding plurality of clamping brackets both in a normal direction parallel to the optical axis of the assembly and in a tangential direction of the corresponding mounting pad. When the optical element has three mounting pads and the optical holder constrains the optical element at corresponding three clamping brackets, the optical element is constrained in six degrees of freedom, three in the normal direction and another three in the tangential direction at the corresponding mounting pads. The optical mounting assembly of this invention can be used in combination with a projection lens assembly in a semiconductor wafer manufacturing process.

A laser-based workpiece processing system includes sensors connected to a sensor controller that converts sensor signals into focused spot motion commands for actuating a beam steering device, such as a two-axis steering mirror. The sensors may include a beam position sensor for correcting errors detected in the optical path, such as thermally-induced beam wandering in response to laser or acousto-optic modulator pointing stability, or optical mount dynamics.

Aspects of the present disclosure relate to mounting electronics and optical systems in head-worn see-through computer displays. In embodiments, a head worn computer includes an optical chassis with a rigid open box structure configured to provide a stable optical mounting reference plane and a plurality of image source reference planes. The head worn computer further includes a first image source mounted on one of the image source reference planes to project first image light through a first hole in the optical mounting reference plane and a second image source mounted on a second of the image source reference planes and configured to project second image light through a second hole in the optical mounting reference plane. An outer frame holds the optical chassis such that, when worn by a user, the first and second image light is aligned with the eyes of the user.

A digital micro-mirror assembly for an optical projection system includes a DMD module with a control board. The control board is provided with a first fixing member, and a DMD is mounted on one side of the control board. A DMD holder resiliently supports a perimeter of the DMD, and an optical holder is provided with a second fixing member to support the DMD module. A fastening member is engaged with the first and the second fixing members to integrally connect the DMD module and the optical holder.

A kinematic optical mounting assembly secures an optical element to a base. A plurality of first bracket assemblies and second bracket assemblies are secured to the base and engage the optical element. Each first bracket assembly constrains the optical element from movement relative to the base in a direction substantially parallel to an axis of the base. Each second bracket assembly constrains the optical element from movement relative to the base in a direction substantially perpendicular to the axis of the base and substantially tangential to a periphery of the base. Six independent bracket assemblies constrain the optical element in six degrees of freedom to provide kinematic constraint without bending moments.

A kinematic optical mounting assembly secures an optical element to a base. A plurality of first bracket assemblies and second bracket assemblies are secured to the base and engage the optical element. Each first bracket assembly constrains the optical element from movement relative to the base in a direction substantially parallel to an axis of the base. Each second bracket assembly constrains the optical element from movement relative to the base in a direction substantially perpendicular to the axis of the base and substantially tangential to a periphery of the base. Six independent bracket assemblies constrain the optical element in six degrees of freedom to provide kinematic constraint without bending moments.

An assembly includes a holder (5), an optical component (1) transmitting radiation in a first region of ultraviolet (UV) radiation adhered to the holder by an adhesive (4), the adhesive being hardenable by radiation of a second region of ultraviolet radiation, a first layer (3) disposed between the optical component and the adhesive, and a second layer (2) for enhancing adhesion between the optical component and the first layer. The first layer is capable of transmitting radiation of the second region of UV radiation and obstructing to a high degree transmission of UV radiation of the first region by at least one of absorption and reflection. The optical component has a transmitting zone and the first layer is located outside of the transmitting zone. The second layer for enhancing adhesion between the optical component and the first layer is disposed between the first layer and the optical component. The assembly can be used, for example, in an illumination system and / or a projection system of a microlithography projection apparatus.

A laser-based workpiece processing system includes sensors connected to a sensor controller that converts sensor signals into focused spot motion commands for actuating a beam steering device, such as a two-axis steering mirror. The sensors may include a beam position sensor for correcting errors detected in the optical path, such as thermally-induced beam wandering in response to laser or acousto-optic modulator pointing stability, or optical mount dynamics.

A laser-based workpiece processing system includes sensors connected to a sensor controller that converts sensor signals into focused spot motion commands for actuating a beam steering device, such as a two-axis steering mirror. The sensors may include a beam position sensor for correcting errors detected in the optical path, such as thermally-induced beam wandering in response to laser or acousto-optic modulator pointing stability, or optical mount dynamics.

An optical module is formed by sticking the optical element mounting substrate and the sealing substrate together, then by sealing the stuck body. The optical mounting substrate includes an optical element on its top surface and it is used to guide electrical signals to its back side through a through-via hole provided in itself. The sealing substrate includes a lens at its back side and a recessed part used to hold an optical fiber at its front side.

A camera for a vehicle is described. The camera has at least one optoelectronic image converter, a camera housing in whose interior the image converter is accommodated, a camera optical element, which is accommodated in an optical mounting reference surface of the camera housing and is provided for imaging a primary detection area on the image converter, and a camera position reference surface for positioning the camera in relation to a vehicle window. At least one receiving surface for at least one light-guiding device e.g., one or a plurality of mirrors, is formed on the camera housing for deflecting light from at least one additional detection area to the camera optical element. The optical mounting reference surface, camera position reference surface, and receiving surface are preferably formed on a single housing component, e.g., an upper shell.

An optical assembly has a lens element having a plurality of radially extending tabs and a mounting structure having a plurality of retaining members. The retaining members extend in a direction substantially parallel to an optical axis defined by the mounting structure and are positioned complementary to the radially extending tabs of the lens element. A portion of the mounting structure is in an interference fit with the a portion of the lens element.

A positioning apparatus for providing relative movement between a first member and a second member has a lever element pivotably coupled to the first member along a fulcrum member and has an actuator arm and a positioner arm. First and second flexure elements extend between the positioner arm of the lever element and the second member. An actuator is coupled to the actuator arm of the lever element.

The invention relates to an optical resonator of a high-power CO2 gas laser. The optical resonator comprises a total reflecting mirror, a total reflecting mirror base, a total reflecting mirror gland cover, an output reflecting mirror, an output reflecting mirror base and an output reflecting mirror gland cover. The connection relationship is as follows: the optical resonator is installed and fixed on two end plates of a high-stability optical support and is fixedly connected with both ends of a chamber passage of a working gas circularly flowing in a closed mode through elastic adjustable bellows. The axle centers of the total reflecting mirror and the output reflecting mirror are adjusted through a calibration lighting source and are coaxial with the space optical axis 0 of a laser discharge chamber. After an energy storing charge and discharge circuit supplies electrical energy, one pair of discharge electrodes of the laser discharge chamber glow discharges evenly to a large area. After multiple times of actuating resonation through the total reflecting mirror and the output reflecting mirror, pulse signals repeat multiple times and become stronger and stronger to form laser light, and the laser light is transmitted through an output window so as to form the optical resonator of the laser. The invention has high stability and reliability and compact structure, and is applicable to high-power gas lasers and pulsed gas lasers.

In various embodiments, provided are ion optical assemblies, and systems for mounting and aligning ion optic components. In various embodiments, the present teachings provide ion optical assemblies with features that facilitate the alignment of ion optical elements. In various embodiments, the alignment of the ion optical elements by compressing them with securing members, as described in the present teachings, can simplify the alignment and assembly of ion optical elements. In the present teachings, no torque pattern is required to compress and align the ion optical elements. In various embodiments, the present teachings provide systems for mounting and aligning ion optic components that facilitate their alignment.

Optical transceivers include a diffractive optical element (DOE) attached to a surface of a prism or other optical support. The DOE is configured to direct an input optical signal to a curved reflective surface or receive an output optical signal from the curved reflective surface at angles greater than a critical angle. In some examples, the optical support includes one or more curved reflective surfaces and the DOE is a hologram. Such optical transceivers can be provided with optical mounts configured for attachment to a building window.

A camera for a vehicle is described. The camera has at least one optoelectronic image converter, a camera housing in whose interior the image converter is accommodated, a camera optical element, which is accommodated in an optical mounting reference surface of the camera housing and is provided for imaging a primary detection area on the image converter, and a camera position reference surface for positioning the camera in relation to a vehicle window. At least one receiving surface for at least one light-guiding device e.g., one or a plurality of mirrors, is formed on the camera housing for deflecting light from at least one additional detection area to the camera optical element. The optical mounting reference surface, camera position reference surface, and receiving surface are preferably formed on a single housing component, e.g., an upper shell.

An adjustable optical mount adapted for use with an optical table defining a reference plane includes a hollow housing with openings in the side walls to allow passage of an optical beam therethrough, a gimbal base fixed on the top of the housing, a gimbal plate adjustably mounted under the gimbal base, and a carrier bracket fixed to the gimbal plate for holding preselected optical elements within the housing along the path of the beam. Adjustment mechanisms are provided to tilt and rotate the gimbal plate so as to align the optical element on a selected axis relative to the reference plane.

The invention discloses a method for calibrating strain parameters of an optical fiber sensor and an optical fiber grating. A standard strain value is generated by a standard transmission piece which is manufactured by a mode of combining a precise displacement sensor and the optical fiber sensor through using a displacement measurement method, so that the strain parameters of the optical fiber sensor and the optical fiber grating can be calibrated indirectly. The method is characterized in that the standard transmission piece comprises a concave optical bracket, the standard optical fiber sensor, the precise displacement sensor and a displacement sensor controller, wherein the concave optical bracket consists of an optical sliding rail guide slot, a fixed end and a free end; V-shaped slots are engraved above the free end and the fixed end; and a base and a sliding rail of the displacement sensor are fixed by bolts, connected with the free end of the optical bracket in the transverse direction and then connected with the displacement sensor controller through data lines.

An offset optic mount can be detachably mounted at its proximal end to an accessory rail of a firearm in a cantilevered fashion with its distal end extending laterally from the firearm. An offset optic mount includes: a base and a clamp member on the proximal end, the base is adapted to be mounted to the accessory rail by the clamp member; an optic adapter plate on the distal end, the optic adapter plate is configured so that an optical sight can be attached thereto, the optic adapter plate is offset at an angle relative to the longitudinal axis of the base; and a stem adapted to connect the optic adapter plate to the base, the stem is a reversable piece used to set and change the offset angle of the optic adapter plate relative to the longitudinal axis of the base.

A method of adjusting an optical system includes placing the optical system in a controlled environment enclosure, and adjusting an optical mount of the optical system while the optical system is in the controlled environment enclosure.

An adjustable optical mount adapted for use with an optical table defining a reference plane includes a hollow housing with openings in the side walls to allow passage of an optical beam therethrough, a gimbal base fixed on the top of the housing, a gimbal plate adjustably mounted under the gimbal base, and a carrier bracket fixed to the gimbal plate for holding preselected optical elements within the housing along the path of the beam. Adjustment mechanisms are provided to tilt and rotate the gimbal plate so as to align the optical element on a selected axis relative to the reference plane.

A laser-based workpiece processing system includes sensors connected to a sensor controller that converts sensor signals into focused spot motion commands for actuating a beam steering device, such as a two-axis steering mirror. The sensors may include a beam position sensor for correcting errors detected in the optical path, such as thermally-induced beam wandering in response to laser or acousto-optic modulator pointing stability, or optical mount dynamics.

A modular illumination and aiming apparatus, a preferred embodiment of which includes an optical head module, mounting module, and an end cap module. The modular illumination and aiming apparatus is configured to be quickly and intuitively adjusted by a user in response to changing target and environmental conditions. The modular illumination and aiming apparatus is configured to be ergonomically supportive such that a user may maintain a consistent firing grip while activating the illumination and aiming functions. The optical head module is configured to allow the user to change radiation types by adjusting a cap. The alignment mechanism in the optical head module for the radiation source and optics is configured to provide a robust and zero-play optical mount in order to resist recoil and general physical shock.

The invention discloses a micro area visible spectrometer and a spectrum measurement method. The micro area visible spectrometer comprises two optical path supports, i.e. a horizontal optical path support and a vertical optical path support; and a transmission output module, a reflection output module, a microscopy module, an imaging observation module, a spectral measurement module, an adjustable diaphragm and a sample three-dimension adjusting table which are arranged on the two optical path supports, wherein the horizontal optical path support and the vertical optical path support enable an optical path to be communicated through a reflecting mirror; the transmission output module, the reflection output module and the microscopy module are fixed on the vertical optical path support, and the imaging observation module, the adjustable diaphragm and the spectral measurement module are fixed on the horizontal optical path support. The micro area visible spectrometer provided by the invention has the advantages of simple structure, high stability, convenient regulation and convenient expansion, and can realize microscopic observation on a sample, can carry out transmission-type and reflection-type visible spectrum measurement on the sample of 5 micron multiplies 5 micron or more in an effective light transmission area.