CN116027566A - Optical component mounting system - Google Patents
Optical component mounting system Download PDFInfo
- Publication number
- CN116027566A CN116027566A CN202211742298.4A CN202211742298A CN116027566A CN 116027566 A CN116027566 A CN 116027566A CN 202211742298 A CN202211742298 A CN 202211742298A CN 116027566 A CN116027566 A CN 116027566A
- Authority
- CN
- China
- Prior art keywords
- lens
- disposed
- bracket
- station
- optical component
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Pending
Links
Images
Abstract
The invention discloses an optical assembly system, which comprises a first lens and a second lens which are sequentially arranged in the direction of a main shaft, wherein the optical assembly system comprises an adjusting device, a reflecting eccentric instrument and a control device, the adjusting device is used for bearing the first lens and the second lens and adjusting the relative positions of the first lens and the second lens, the reflecting eccentric instrument is used for detecting the position information of the first lens and the second lens, and the control device is electrically connected with the reflecting eccentric instrument and the adjusting device and is used for controlling the adjusting device to adjust the relative positions of the first lens and the second lens according to the position information. In the invention, the relative position of the lens in the lens is adjusted by adopting an optical alignment mode, and the alignment precision is better.
Description
Technical Field
The invention relates to the technical field of optics, in particular to an optical component assembly system.
Background
With the development of optical technology, the design accuracy of optical components is also increasingly required. Taking an ultra-short focal VR lens as an example, in the prior art, the relative position of each lens in the lens is usually adjusted by means of a CCD alignment technology, however, such an alignment adjustment technology cannot meet the optical design accuracy requirement.
Disclosure of Invention
The invention mainly aims to provide an optical component assembly system with higher alignment precision.
In order to achieve the above object, the present invention provides an optical component mounting system including a first lens and a second lens disposed in order in a main axis direction, the optical component mounting system including:
an adjusting device for bearing the first lens and the second lens and adjusting the relative positions of the first lens and the second lens;
a reflective eccentric to detect positional information of the first lens and the second lens; the method comprises the steps of,
and the control device is electrically connected with the reflection eccentric instrument and the adjusting device and is used for controlling the adjusting device to adjust the relative positions of the first lens and the second lens according to the position information.
In an embodiment, the adjusting device comprises a frame, a first bracket and a second bracket, wherein the first bracket and the second bracket are movably arranged on the frame and are arranged at intervals in the direction of the main shaft, the first bracket is used for fixing the first lens, the second bracket is used for fixing the second lens, and the first bracket is movably arranged relative to the second bracket in the direction of the main shaft.
In an embodiment, the first support and the second support are respectively and movably arranged relative to the frame in a normal direction of the main shaft direction, a first adjusting mechanism is arranged on the first support and is used for adjusting the inclination angle of the first lens relative to the main shaft direction, and a second adjusting mechanism is arranged on the second support and is used for adjusting the inclination angle of the second lens relative to the main shaft direction.
In an embodiment, the eccentric reflector comprises a first eccentric reflector disposed on a side of the first support opposite to the second support, and a second eccentric reflector disposed on a side of the second support opposite to the first support, wherein the first eccentric reflector is used for detecting a first offset and a first inclination of the first lens relative to the main shaft, the second eccentric reflector is used for detecting a second offset and a second inclination of the second lens relative to the main shaft, the position information comprises the first offset, the first inclination, the second offset and the second inclination, and the control device is used for controlling the adjusting device to adjust positions of the first lens and the second lens according to the position information so that optical axes of the first lens and the second lens respectively coincide with the main shaft.
In an embodiment, the optical component assembly system further includes an air floating platform, a rotation axis of the air floating platform coincides with the main shaft, and the adjusting device is disposed on the air floating platform.
In an embodiment, the second support is provided with a rotary table, the rotary table is rotatably disposed around a rotation shaft extending along the main shaft direction, and the second lens is disposed on the rotary table.
In an embodiment, the optical power meter further comprises an optical power meter arranged on one side of the first support, which is opposite to the second support, and a laser transmitter arranged on one side of the second support, which is opposite to the first support, wherein the laser transmitter is used for transmitting laser along the main shaft, the optical power meter is used for detecting the intensity value of the laser, and the control device is electrically connected with the optical power meter and the adjusting device, so that the adjusting device is controlled according to the intensity value, and the rotary table drives the second lens to rotate until the intensity value reaches the maximum value.
In an embodiment, the optical system further comprises a first spectral confocal instrument arranged on one side of the first support, which is away from the second support, and a second spectral confocal instrument arranged on one side of the second support, which is away from the first support, wherein the first spectral confocal instrument and the second spectral confocal instrument are used for detecting a distance value between the first lens and the second lens, and the control device is electrically connected with the first spectral confocal instrument, the second spectral confocal instrument and the adjusting device, so that the adjusting device is controlled according to the distance value, and the first support drives the first lens to move to the distance value to reach a design value.
In an embodiment, the device further comprises a dispensing device, wherein the dispensing device is used for gluing the first lens and/or the second lens.
In an embodiment, the device further comprises a transmission mechanism, wherein the transmission mechanism is provided with a first adjusting station, a gluing station, a second adjusting station and a bonding station which are sequentially arranged along a transmission direction, the reflective eccentric instrument is arranged at the first adjusting station, the glue dispensing device is arranged at the gluing station, the optical power meter and the laser transmitter are arranged at the second adjusting station, the first spectral confocal instrument and the second spectral confocal instrument are arranged at the bonding station, and the adjusting device is movably arranged at the transmission mechanism along the transmission direction; or alternatively, the process may be performed,
still include transport mechanism, transport mechanism has glue applying station, first adjustment station, second adjustment station and the bonding station that set gradually along the direction of transmission, the reflection eccentric appearance is located first adjustment station, glue dispensing device locates glue applying station, the optical power meter with laser emitter locates the second adjustment station, first spectrum confocal appearance with second spectrum confocal appearance is located bonding station, adjusting device follows the direction of transmission movably locates transport mechanism.
The invention provides an optical assembly system, which comprises a first lens and a second lens which are sequentially arranged in the main shaft direction, wherein the optical assembly system comprises an adjusting device, a reflecting eccentric instrument and a control device, the adjusting device is used for bearing the first lens and the second lens and adjusting the relative positions of the first lens and the second lens, the reflecting eccentric instrument is used for detecting the position information of the first lens and the second lens, and the control device is electrically connected with the reflecting eccentric instrument and the adjusting device and is used for controlling the adjusting device to adjust the relative positions of the first lens and the second lens according to the position information. In the embodiment provided by the invention, the optical component assembly system adopts an optical alignment mode to adjust the relative position of the lens in the lens, so that the error is smaller and the alignment precision is better compared with the traditional CCD alignment mode.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings that are required in the embodiments or the description of the prior art will be briefly described, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and other drawings may be obtained according to the structures shown in these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a schematic diagram of an embodiment of an optical component mounting system according to the present invention;
fig. 2 is a schematic structural view of the adjusting device and the air bearing platform in fig. 1.
Reference numerals illustrate:
the achievement of the objects, functional features and advantages of the present invention will be further described with reference to the accompanying drawings, in conjunction with the embodiments.
Detailed Description
In the case where a directional instruction is involved in the embodiment of the present invention, the directional instruction is merely used to explain the relative positional relationship, movement condition, etc. between the components in a specific posture, and if the specific posture is changed, the directional instruction is changed accordingly.
In addition, if there is a description of "first", "second", etc. in the embodiments of the present invention, the description of "first", "second", etc. is for descriptive purposes only and is not to be construed as indicating or implying a relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defining "a first" or "a second" may explicitly or implicitly include at least one such feature. In addition, the meaning of "and/or" as it appears throughout is meant to include three side-by-side schemes, for example, "A and/or B", including the A scheme, or the B scheme, or the scheme where A and B meet at the same time.
The present invention provides an optical component assembly system 1000, wherein the optical component may be an optical lens or a lens group in the optical lens. In an embodiment, the optical component is preferably an ultra-short focal VR lens. The optical axis of the optical assembly extends along the major axis, and for clarity of description, the major axis 90 hereinafter represents the overall optical axis of the optical assembly. The optical assembly comprises a first lens 100 and a second lens 200, the first lens 100 and the second lens 200 are sequentially arranged in the main shaft direction, and the first lens 100 and the second lens 200 can be assembled and fixed by utilizing a lens outer frame or can be assembled and fixed by bonding. It will be appreciated that after assembly, the optical axes of the first lens 100 and the second lens 200 should be coincident, and the polarizing films of the two aligned, and the spacing between the first lens 100 and the second lens 200 meets design requirements.
Referring to fig. 1, the optical component mounting system 1000 provided by the present invention includes an adjusting device 10, a reflective eccentric, and a control device. It should be noted that the adjusting device 10 in fig. 1 is only provided with one, and the broken line indicates that the adjusting device 10 may be moved to other stations. The adjusting device 10 is used for carrying the first lens 100 and the second lens 200, and the specific structure of the adjusting device 10 is not limited, as long as the relative positions of the first lens 100 and the second lens 200 can be controlled and adjusted according to the instruction of the control device. The eccentric reflectometer is used for detecting the position information of the first lens 100 and the second lens 200, the control device can be a single chip microcomputer, a microprocessor and the like, and the control device is electrically connected with the eccentric reflectometer and the adjusting device 10 and is used for controlling the adjusting device 10 to adjust the relative positions of the first lens 100 and the second lens 200 according to the position information. In this embodiment, the optical assembly assembling system 1000 automatically adjusts the relative position of the lens in the lens by adopting an optical alignment mode, and has smaller error and better alignment precision compared with the conventional CCD alignment mode.
With continued reference to fig. 2, in an embodiment, the adjusting device 10 includes a frame 11, and a first bracket 121 and a second bracket 122 movably disposed on the frame 11 and spaced apart from each other in the main axis direction, where the first bracket 121 is used for fixing the first lens 100, the second bracket 122 is used for fixing the second lens 200, and specific structures of fixing the lenses by the first bracket 121 and the second bracket 122 are not limited. The first bracket 121 is disposed movably with respect to the second bracket 122 in the main shaft direction. In this embodiment, the first support 121 and the second support 122 may be both movably disposed along the main axis direction, or one of the first support 121 and the second support 122 may be movably disposed along the main axis direction, so that the distance between the first support 121 and the second support 122 in the main axis direction is adjustable, so that the distance between the first lens 100 and the second lens 200 may be adjusted to a design value. It will be appreciated that the adjustment device 10 further includes a driving mechanism, which may receive a control command sent by the control device, so as to drive the first bracket 121 and/or the second bracket 122 to move along the main shaft direction.
Based on the above embodiment, please continue to refer to fig. 2, the first support 121 and the second support 122 are respectively movably disposed in a normal direction of the main axis direction relative to the frame 11, a first adjusting mechanism is disposed on the first support 121, the first adjusting mechanism is used for adjusting an inclination angle of the first lens 100 relative to the main axis direction, a second adjusting mechanism is disposed on the second support 122, the second adjusting mechanism is used for adjusting an inclination angle of the second lens 200 relative to the main axis direction, and specific forms of the first adjusting mechanism and the second adjusting mechanism are not limited. In this embodiment, the first support 121 and the second support 122 are respectively movably disposed in a normal direction of the main axis direction relative to the frame 11, so that the first lens 100 and the second lens 200 can be respectively driven to translate in a normal direction of the main axis 90, so that the optical axes of the first lens 100 and the second lens 200 can be aligned, the first adjusting mechanism is used for adjusting the inclination angle of the first lens 100 relative to the main axis direction, and the second adjusting mechanism is used for adjusting the inclination angle of the second lens 200 relative to the main axis direction, so that the inclination angles of the optical axes of the first lens 100 and the second lens 200 can be adjusted along with the rotation of the first lens 100 and the second lens 200. It will be appreciated that the adjusting device 10 further includes a driving mechanism, which may receive the control command sent by the control device, so as to drive the first bracket 121 and/or the second bracket 122 to translate and flip the first lens 100 and/or the second lens 200, so that the optical axes of the first lens 100 and the second lens 200 can substantially coincide.
Based on the above embodiment, referring to fig. 1, the eccentric reflectometer includes a first eccentric reflectometer 21 disposed on a side of the first support 121 opposite to the second support 122, and a second eccentric reflectometer 22 disposed on a side of the second support 122 opposite to the first support 121, wherein the first eccentric reflectometer 21 is used for detecting a first offset and a first inclination of the first lens 100 relative to the main shaft 90, and the second eccentric reflectometer 22 is used for detecting a second offset and a second inclination of the second lens 200 relative to the main shaft 90. The first offset refers to an offset distance between the optical axis of the first lens 100 and the main axis 90 in the direction of the main axis, and the first tilt refers to a tilt angle of the optical axis of the first lens 100 with respect to the main axis 90. The second offset refers to an offset distance between the optical axis of the second lens 200 and the main axis 90 in the direction of the main axis, and the second tilt refers to a tilt angle of the optical axis of the second lens 200 with respect to the main axis 90.
The position information includes the first offset, the first tilt, the second offset, and the second tilt, and the control device is configured to control the adjusting device 10 to adjust positions of the first lens 100 and the second lens 200 according to the position information, so that optical axes of the first lens 100 and the second lens 200 respectively coincide with the main axis 90. In this embodiment, the relative positions of the first lens 100 and the second lens 200 are not adjusted by using a conventional CCD alignment manner, but the position information of each of the first lens 100 and the second lens 200 is detected by using a reflective eccentric instrument in an optical manner, and the positions of each of the first lens 100 and the second lens 200 are adjusted by controlling the adjusting device 10 through the control device according to the detection result of the reflective eccentric instrument, so that the detection precision is high, the adjusting effect is good, and the precision of the optical assembly can more easily meet the requirement of the design precision of the optical assembly.
On the basis of the above embodiment, in order to provide the same spindle 90 for reference detection to the first lens 100 and the second lens 200, the optical component assembly system 1000 further includes an air bearing platform 30, where the rotation axis of the air bearing platform 30 coincides with the spindle 90, and the adjusting device 10 is disposed on the air bearing platform 30. The air-floating platform 30 may drive the adjusting device 10 and the first lens 100 and the second lens 200 carried thereon to rotate around the main shaft 90, and when the reflective eccentric instrument is required to be used for detection, the air-floating platform 30 drives the adjusting device 10 to rotate at least one circle, so that the first reflective eccentric instrument 21 and the second reflective eccentric instrument 22 can correspondingly detect the relative positional relationship between the first lens 100 and the second lens 200 and the main shaft 90, including but not limited to the first offset, the first inclination, the second offset and the second inclination.
With reference to fig. 2, the second support 122 is provided with a rotary table 13, the rotary table 13 is rotatably disposed around a rotation axis extending along the main axis direction, and the second lens 200 is disposed on the rotary table 13. In this way, after the optical axes of the first lens 100 and the second lens 200 are coincident, the rotary table 13 may drive the second lens 200 to rotate relative to the first lens 100, so that the polarizing film transmission axes of the two lenses can be aligned in the relative rotation stroke.
Specifically, referring to fig. 1, the optical assembly assembling system 1000 further includes an optical power meter 41 disposed on a side of the first support 121 opposite to the second support 122, and a laser emitter 42 disposed on a side of the second support 122 opposite to the first support 121, wherein the laser emitter 42 is configured to emit laser along the main shaft 90, the optical power meter 41 is configured to detect an intensity value of the laser, and the control device is electrically connected to the optical power meter 41 and the adjusting device 10, so as to control the adjusting device 10 according to the intensity value, so that the rotary table 13 drives the second lens 200 to rotate until the intensity value reaches a maximum value. It can be understood that, in this embodiment, when the transmission axes of the polarizing films of the first lens 100 and the second lens 200 are aligned, the light intensity of the laser beam passing through the optical component can reach a maximum value, so in this embodiment, the control device can control the rotation axis to rotate the second lens 200 relative to the first lens 100, and detect the intensity value in real time, and the maximum value of the intensity value corresponds to the transmission axis aligned position of the polarizing films of the second lens 200 and the first lens 100 in a complete rotation of the second lens 200 relative to the first lens 100. Thus, in this embodiment, the alignment of the transmission axes of the polarizing films between the first lens 100 and the second lens 200 is achieved by the optical detection method, which is simple and convenient to operate and has high alignment accuracy.
In an embodiment, referring to fig. 1, the optical component assembling system 1000 further includes a first spectral confocal instrument 51 disposed on a side of the first support 121 facing away from the second support 122, and a second spectral confocal instrument 52 disposed on a side of the second support 122 facing away from the first support 121, where the first spectral confocal instrument 51 and the second spectral confocal instrument 52 are used for detecting a distance value between the first lens 100 and the second lens 200, and the control device is electrically connected to the first spectral confocal instrument 51, the second spectral confocal instrument 52, and the adjusting device 10, so as to control the adjusting device 10 according to the distance value, so that the first support 121 drives the first lens 100 to move to the distance value to reach a design value. In this embodiment, the first spectral confocal instrument 51 can detect the distance L between the first lens 100 and the first spectral confocal instrument 51, and the distance L1 between the second lens 200 and the first spectral confocal instrument 51, and the second spectral confocal instrument 52 can detect the distance L between the first spectral confocal instrument 51, and the distance L2 between the first lens 100 and the first spectral confocal instrument 51, and the distance D between the first lens 100 and the second lens 200 is L-L1-L2. In this embodiment, the distance D between the first lens 100 and the second lens 200 is detected by an optical method, so that the actual distance between the first lens 100 and the second lens 200 can be controlled and adjusted to meet the design requirement by comparing the distance D with the design value, and the detection precision is high and the adjustment effect is good.
In an embodiment, the first lens 100 and the second lens 200 are fixed by glue, and it is understood that the glue thickness between the first lens 100 and the second lens 200 may be adjusted by the method in the previous embodiment, so as to achieve adhesion between the first lens 100 and the second lens 200. After the adjustment is finished, the colloid can be solidified by using hot air or ultraviolet rays and the like, so that the assembly of the optical component is completed. In this embodiment, the optical component mounting system 1000 further includes a dispensing device 60, where the dispensing device 60 is configured to apply glue to the first lens 100 and/or the second lens 200. Thereby realizing the automatic assembly of the first lens 100 and the second lens 200 and improving the production efficiency.
Based on the above embodiment, referring to fig. 1, the optical component assembling system 1000 further includes a transmission mechanism 70, the transmission mechanism 70 includes a first adjusting station 81, a glue applying station 82, a second adjusting station 83, and a bonding station 84 sequentially disposed along a transmission direction, the reflective eccentric device is disposed at the first adjusting station 81, the glue dispensing device 60 is disposed at the glue applying station 82, the optical power meter 41 and the laser transmitter 42 are disposed at the second adjusting station 83, the first spectral confocal instrument 51 and the second spectral confocal instrument 52 are disposed at the bonding station 84, and the adjusting device 10 is movably disposed at the transmission mechanism 70 along the transmission direction. In this embodiment, the transmission mechanism 70 sequentially moves the adjusting device 10 to the first adjusting station 81, the glue applying station 82, the second adjusting station 83 and the bonding station 84 with the first lens 100 and the second lens 200, so that the first lens 100 and the second lens 200 sequentially complete alignment adjustment of the optical axis at each station, glue the lenses, align the polarizing film with the axis and adjust the distance and bond each process, thereby realizing automatic assembly of the optical assembly, having high assembly efficiency and high adjustment precision, and being capable of meeting the requirement of optical design precision.
It will be appreciated that in another embodiment the sequence of stations may be reversed, for example the transfer mechanism 70 has a glue station 82, a first adjustment station 81, a second adjustment station 83 and a bonding station 84 arranged in sequence along the transfer direction. Therefore, the automatic assembly of the optical component can be realized, the assembly efficiency is high, the adjustment precision is high, and the optical design precision requirement can be met.
The foregoing description is only of the preferred embodiments of the present invention and is not intended to limit the scope of the invention, and all equivalent structural changes made by the description of the present invention and the accompanying drawings or direct/indirect application in other related technical fields are included in the scope of the invention.
Claims (10)
1. An optical component mounting system, the optical component including a first lens and a second lens disposed in order in a main axis direction, the optical component mounting system comprising:
an adjusting device for bearing the first lens and the second lens and adjusting the relative positions of the first lens and the second lens;
a reflective eccentric to detect positional information of the first lens and the second lens; the method comprises the steps of,
and the control device is electrically connected with the reflection eccentric instrument and the adjusting device and is used for controlling the adjusting device to adjust the relative positions of the first lens and the second lens according to the position information.
2. The optical component mounting system of claim 1, wherein the adjustment device comprises a frame, and a first bracket and a second bracket movably disposed on the frame and spaced apart in the spindle direction, the first bracket being configured to fix the first lens, the second bracket being configured to fix the second lens, the first bracket being movably disposed relative to the second bracket in the spindle direction.
3. The optical component mounting system of claim 2, wherein the first bracket and the second bracket are respectively movably disposed relative to the frame in a normal direction of the main axis direction, a first adjusting mechanism is disposed on the first bracket, the first adjusting mechanism is used for adjusting an inclination angle of the first lens relative to the main axis direction, and a second adjusting mechanism is disposed on the second bracket, and the second adjusting mechanism is used for adjusting an inclination angle of the second lens relative to the main axis direction.
4. The optical component mounting system of claim 3, wherein the eccentric comprises a first eccentric disposed on a side of the first bracket facing away from the second bracket, and a second eccentric disposed on a side of the second bracket facing away from the first bracket, the first eccentric configured to detect a first offset and a first tilt of the first lens relative to a principal axis, the second eccentric configured to detect a second offset and a second tilt of the second lens relative to the principal axis, the positional information comprising the first offset, the first tilt, the second offset, and the second tilt, and the control device configured to control the adjustment device to adjust positions of the first lens and the second lens based on the positional information such that optical axes of the first lens and the second lens coincide with the principal axis, respectively.
5. The optical component mounting system of claim 4, further comprising an air bearing platform, wherein a rotational axis of the air bearing platform coincides with the spindle, and wherein the adjustment device is disposed on the air bearing platform.
6. The optical component mounting system according to claim 4 or 5, wherein a rotary table is provided on the second bracket, the rotary table being rotatably provided around a rotation axis extending in the main axis direction, and the second lens being provided on the rotary table.
7. The optical component mounting system of claim 6, further comprising an optical power meter disposed on a side of the first support opposite the second support, and a laser emitter disposed on a side of the second support opposite the first support, the laser emitter configured to emit laser light along the main axis, the optical power meter configured to detect an intensity value of the laser light, the control device being electrically connected to the optical power meter and the adjustment device, and configured to control the adjustment device according to the intensity value, such that the rotation stage drives the second lens to rotate until the intensity value reaches a maximum value.
8. The optical component mounting system of claim 7, further comprising a first spectral confocal instrument disposed on a side of the first support facing away from the second support, and a second spectral confocal instrument disposed on a side of the second support facing away from the first support, wherein the first and second spectral confocal instruments are configured to detect a distance value between the first and second lenses, and the control device is electrically connected to the first, second, and adjustment devices to control the adjustment device according to the distance value such that the first support drives the first lens to move to the distance value to reach a design value.
9. The optical component mounting system of claim 8, further comprising a dispensing device for applying glue to the first lens and/or the second lens.
10. The optical component mounting system of claim 9, further comprising a transmission mechanism having a first adjustment station, a glue application station, a second adjustment station, and a bonding station disposed in sequence along a transmission direction, wherein the reflective eccentric is disposed at the first adjustment station, the glue dispensing device is disposed at the glue application station, the optical power meter and the laser transmitter are disposed at the second adjustment station, wherein the first and second optical confocal meters are disposed at the bonding station, and wherein the adjustment device is movably disposed at the transmission mechanism along the transmission direction; or alternatively, the process may be performed,
still include transport mechanism, transport mechanism has glue applying station, first adjustment station, second adjustment station and the bonding station that set gradually along the direction of transmission, the reflection eccentric appearance is located first adjustment station, glue dispensing device locates glue applying station, the optical power meter with laser emitter locates the second adjustment station, first spectrum confocal appearance with second spectrum confocal appearance is located bonding station, adjusting device follows the direction of transmission movably locates transport mechanism.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202211742298.4A CN116027566A (en) | 2022-12-29 | 2022-12-29 | Optical component mounting system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202211742298.4A CN116027566A (en) | 2022-12-29 | 2022-12-29 | Optical component mounting system |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN116027566A true CN116027566A (en) | 2023-04-28 |
Family
ID=86070201
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202211742298.4A Pending CN116027566A (en) | 2022-12-29 | 2022-12-29 | Optical component mounting system |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN116027566A (en) |
-
2022
- 2022-12-29 CN CN202211742298.4A patent/CN116027566A/en active Pending
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN212391611U (en) | Optical sensing system | |
| CN104317033B (en) | Method for adjusting reflectors through decentration measuring instrument | |
| CN108828765B (en) | Kude optical path adjusting method based on double theodolites | |
| CN114415389B (en) | Optical-mechanical system adjustment method comprising multiple reflectors | |
| CN112666571A (en) | Laser tracker reflection system and reflection method | |
| JPWO2003041478A1 (en) | Mounting apparatus and mounting method | |
| CN107589552A (en) | Optics module assembles equipment | |
| CN116027566A (en) | Optical component mounting system | |
| US7009788B2 (en) | Method of making a rotational optical arrangement, and the optical arrangement made by the method | |
| CN207663157U (en) | Optics module assembles equipment | |
| US7859761B2 (en) | Illumination system | |
| CN111381328B (en) | Driving mechanism | |
| CN211698371U (en) | Driving mechanism | |
| JPS59185039A (en) | Objective lens device | |
| JP2002156562A (en) | Semiconductor laser module and method for manufacturing the same | |
| JP2019117363A (en) | Method of manufacturing optical element assembly | |
| CN209373108U (en) | A kind of range unit | |
| CN114858096A (en) | Horizontal light path transmission goniometer and measuring method | |
| CN106527502A (en) | Wireless optical antenna automatic tracking system | |
| JPH11352387A (en) | Optical axis correcting device | |
| CN212872971U (en) | Automatic light coupling spot glue system for mounting collimator | |
| KR101034720B1 (en) | Apparatus for correcting jitter of laser beam in beam director | |
| CN214473957U (en) | Laser tracker reflection system | |
| CN117761910A (en) | Kude optical path adjustment method based on autocollimator | |
| CN112505664B (en) | Laser radar light path adjustment method |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| PB01 | Publication | ||
| PB01 | Publication | ||
| SE01 | Entry into force of request for substantive examination | ||
| SE01 | Entry into force of request for substantive examination |