CN108508432A - A kind of portable light shaft detection instrument and its method - Google Patents
A kind of portable light shaft detection instrument and its method Download PDFInfo
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- CN108508432A CN108508432A CN201810307166.6A CN201810307166A CN108508432A CN 108508432 A CN108508432 A CN 108508432A CN 201810307166 A CN201810307166 A CN 201810307166A CN 108508432 A CN108508432 A CN 108508432A
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Classifications
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- G—PHYSICS
- G01—MEASURING; TESTING
- G01S—RADIO DIRECTION-FINDING; RADIO NAVIGATION; DETERMINING DISTANCE OR VELOCITY BY USE OF RADIO WAVES; LOCATING OR PRESENCE-DETECTING BY USE OF THE REFLECTION OR RERADIATION OF RADIO WAVES; ANALOGOUS ARRANGEMENTS USING OTHER WAVES
- G01S7/00—Details of systems according to groups G01S13/00, G01S15/00, G01S17/00
- G01S7/48—Details of systems according to groups G01S13/00, G01S15/00, G01S17/00 of systems according to group G01S17/00
- G01S7/497—Means for monitoring or calibrating
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- General Physics & Mathematics (AREA)
- Radar, Positioning & Navigation (AREA)
- Remote Sensing (AREA)
- Microscoopes, Condenser (AREA)
Abstract
A kind of portable light shaft detection instrument of present invention offer and its method, the detector include that first be arranged on adjustable frames turns to prism, the second steering prism, achromatism microscope group, Amici prism, CCD camera, shading sleeve, visible light source and level meter；Described first turns to prism, the second steering prism, achromatism microscope group and Amici prism and CCD camera coaxial arrangement；The Amici prism, shading sleeve and visible light source coaxial arrangement.Portable light shaft detection instrument of the present invention has small, it is light-weight, facilitate field work, simple operation and other advantages, the adjustment that can carry out light shaft coaxle degree to the optical system of laser ranging system or laser radar system at any time, can also complete the consistency calibration of target guidance axis, Laser emission optical axis, laser pick-off optical axis in the wild under mal-condition.
Description
Technical field
The present invention relates to a kind of detectors, and in particular to a kind of portable light shaft detection instrument and its method.
Background technology
Long distance laser range-measurement system and laser radar system etc. are all using transmitting laser irradiation to target surface,
The reflected optical signal of collection with large aperture shots is taken, and is focused on highly sensitive APD photodetectors, into
The conversion of traveling optical signal to electric signal carries out ranging, the identification tested the speed with target by the measurement to transmitting and receiving time difference
Deng before putting into formal use, it will usually carry out high-precision coaxial degree detection, it is therefore an objective to allow and aim at optical axis, transmitting optical axis
Keep high-precision coaxial with optical axis is received, this is also laser ranging system and the high-precision important leverage of laser radar system.
At present to mechanical axis, transmitting camera lens and there are two ways to receiving camera lens progress concentricity detection：One, using profit
Focal position calibration is carried out with optical axis is received to transmitting with heavy caliber condenser lens and CCD camera, it is right by correlation calibration position
Transmitting carries out the adjusting of optical axis with the system of reception, makes its position consistency, carries out concentricity detection.Two, recessed using heavy caliber defocus
Face speculum and CCD camera carry out focal position calibration to transmitting with optical axis is received, by correlation calibration position, to emitting and connecing
Receipts system carries out the adjusting of optical axis, makes its position consistency, carries out concentricity detection；
Laser ranging system and laser radar system are all the high precision instruments for having laser light source as transmitting light source.The
The heavy caliber condenser lens used in a kind of method generally requires bore and accomplishes 200mm, and this lens are due to processing technology hardly possible
Degree is very big, it is caused to involve great expense, and can make that the production cost increases, to reduce the price competitiveness of product；Second of side
Although in method with the concave mirror of defocus instead of bigbore condenser lens, cost reduction some, due to it
It is very thick and heavy, it has not been convenient to carry it is outgoing, once asking of occurring in the environment of work of laser ranging system or laser radar system
Topic is related to transmitting and reception system, then can not school axis again under mal-condition in the wild according to such method, it is necessary to send back to
The military region or manufacturer repair, and influence very much working efficiency.So those skilled in the art's optical axis detection urgently to be resolved hurrily
Of high cost, detecting instrument is excessively heavy, it has not been convenient to carry and go out, lead to problems such as working efficiency low.
Invention content
To overcome the problems, such as at least to a certain extent present in the relevant technologies, the application provides a kind of portable light repacking
Survey instrument and its method.
The purpose of the present invention is what is realized using following technical proposals：
A kind of portable light shaft detection instrument, it is improved in that the detector includes being arranged in adjustable frames 24
On first turn to prism 9, second turn to prism 12, achromatism microscope group 19, Amici prism 20, CCD camera 21, shading sleeve
22, visible light source 23 and level meter 25；
Described first, which turns to prism 9, second, turns to prism 12, achromatism microscope group 19 and Amici prism 20 and CCD camera 21
Coaxial arrangement；The Amici prism 20, shading sleeve 22 and visible light source 23 are coaxially disposed.
Further, the first steering prism 9 includes that the first steering prismatic decomposition part 10 and the first steering prism are anti-
Penetrate part；Described second turns to prism 12 turns to prismatic reflection part 13 and the second steering prismatic decomposition part 14 including second.
Further, the detector front end is equipped with plane mirror 18；The plane mirror 18 is located at described first
Turn to prism 9 front end, with described first turn to prism 9, second turn to prism 12, achromatism microscope group 19 and Amici prism 20 and
CCD camera 21 is coaxially disposed.
Further, it will be seen that radiant 23 is opened, and is adjusted the pitching of the first steering prism 9 and is made the two of light source with azimuth
A hot spot is overlapped in the position at 21 center of CCD camera, and finely tunes the position of visible light source 23 and CCD camera 21；Calibrate optical axis
The second of detector turns to prism 12, and 18 face second of plane mirror is turned to prism 12, placement angle and optical axis at 90 degree,
It will be seen that radiant 23 is opened, adjust the pitching of the second steering prism 12 makes two hot spots of light source overlap in CCD with azimuth
21 center of camera.
Further, the detector front end is equipped with laser range finder；The laser range finder includes swashing for coaxial arrangement
Light device 2 and transmitting microscope group 3, the APD photodetectors 6 of coaxial arrangement, the light echo comprising depth edge filter 5 receive microscope group 4,
Target of the coaxial arrangement comprising field stop 8 aims at microscope group 7, and receives the removable of systematic optical axis detection for laser range finder
Analog light source 26 and metal baffle 27.
Further, attenuator 15 is equipped between the detector front end and laser range finder, the attenuator 15 includes
The attenuator 17 placed at 45 degree with optical axis and with the light barrier 16 that prevents laser to be reflected light path.
Further, to aiming at optical axis school axis, the target of laser range finder is aimed at into microscope group 7, transmitting microscope group 3, light echo and is connect
It receives microscope group 4 and is directed at optical axis detector, open visible light source 23,7 one end of microscope group can be aimed in target and observe that bright spot, adjusting are taken aim at
Quasi- mirror makes bright spot clearly be located at the center of crosshair, locks gun sight, closes visible light source 23.
Further, to transmitting optical axis school axis, laser 2 is opened, laser is incident on attenuator 17 via transmitting microscope group 3,
Attenuator 17 is placed with transmitting optical axis at 45 degree, and in a part of light reflection to light barrier 16, another part light enters second and turns to
Prism 12 adjusts pitching and the azimuth of transmitting microscope group 3, so that laser is converged on the receiving plane of CCD camera 21, demarcate position,
And save location information.
Further, to receiving optical axis school axis, analog light source 26 is mounted in metal baffle 27, and metallic plate is blocked in side
Analog light source 26, side shine, and analog light source 26 is received 4 lower opening of microscope group by light echo to be put into, and analog light source 26 is opened,
Analog light source 26 sends out smooth 6 receiving surface of directive APD photodetectors identical with 2 wavelength of laser, passes through APD photodetections
6 receiving surface of device is reflected into light echo and receives microscope group 4, and CCD camera 21 is focused on by achromatism microscope group 19 and Amici prism 20
Receiving plane on, adjusting light echo and receiving the pitching of microscope group 4 and azimuth makes hot spot and the transmitting laser facula demarcated before
Position consistency locks light echo reception microscope group 4 after regulating, and optical axis calibrator is completed.
The present invention also provides a kind of portable light shaft detection methods, it is improved in that the method includes
Calibration optical axis detector precision is adjusted, makes the receiving plane of visible light source 23 and CCD camera 21 in achromatic lens
19 focal plane positions of group；
Laser range finder is directed at optical axis detector, fine tuning target aims at microscope group 7, it will be seen that light hot spot images in target and takes aim at
Quasi- microscope group center, fine-tuned emission microscope group 3 and light echo receive microscope group 4 pitching and azimuth by the transmitting of laser range finder with connect
Optical axis is received to be calibrated；Specifically, laser range finder is directed at optical axis detector, target aims at microscope group 7 and observes visible light source
Whether 23 in center of reticule position, and coaxial if the laser range finder mechanical axis and if target aiming microscope group 7, recycling turns to rib
Mirror will receive the light catadioptric of microscope group 4 all into achromatism microscope group 19, focusing illumination to CCD phases by emitting microscope group 3 and light echo
Machine 21 need not move laser range finder in this way, need not also move CCD camera 21, it is only necessary to fine-tuned emission microscope group 3 and light echo
The pitching and azimuth for receiving microscope group 4 can calibrate the transmitting of laser range finder with optical axis is received.
Using observation visible light spot, calibration transmitting and position of the light spot received in the same CCD camera 21, mesh is finely tuned
Mark aims at pitching and the azimuth that microscope group 7, transmitting microscope group 3 and light echo receive microscope group 4, ensures that target aims at optical axis, laser hair
Penetrate the consistency that optical axis receives optical axis with heliogram.
In order to the embodiment to disclosure some aspects there are one basic understanding, simple summary is shown below.It should
Summarized section is not extensive overview, nor to determine key/critical component or describe the protection domain of these embodiments.
Its sole purpose is that some concepts are presented with simple form, in this, as the preamble of following detailed description.
Compared with the immediate prior art, the excellent effect that technical solution provided by the invention has is：
Portable light shaft detection instrument of the present invention have it is small, it is light-weight, facilitate field work, simple operation and other advantages,
The adjustment of light shaft coaxle degree can be carried out to the optical system of laser ranging system or laser radar system at any time, in the wild badly
Under the conditions of can also complete the consistency calibration of target guidance axis, Laser emission optical axis, laser pick-off optical axis.
Optical axis detector in the present invention is not received using bigbore concave surface defocused reflector and bigbore focusing
Lens, so weight is relatively light, small volume can concentrate on all components in 500mm, and overcoming is inconvenient to take
The deficiency of band facilitates field work, easy to operate, it can be at any time to the optical system of laser ranging system or laser radar system
System carries out the adjustment of light shaft coaxle degree, can also complete target guidance axis, Laser emission optical axis, laser under mal-condition in the wild
The consistency calibration for receiving optical axis, greatly improves work efficiency.
Replace the laser of emission system as light source using laser diode, doing so can reduce due to misoperation, forget
The damage of APD Electro-Optical Sensor Sets when remembering and add attenuator or other reasons, and reception system being caused to carry out concentricity detection, due to
APD photodetectors 6 are expensive, do so the safety that ensure that APD photodetectors 6, to save cost, improve product
Price competitiveness.
Using APD Electro-Optical Sensor Set of the receiving surface with reflection, laser diode is placed in APD photodetectors
At 6 front ends, due to the reflection characteristic of its receiving surface, laser diode, which is powered on, makes it shine, APD photodetectors 6
Light beam can be reflected into reception system and system for testing optical axis by receiving surface, and the method need not first put analog light source
In the positions APD, then the installation of APD is carried out, just can ensure the precision of concentricity detection, the competition enhanced product performance well
Power.
For above-mentioned and relevant purpose, certain illustrative aspects are described in detail in the following description and the annexed drawings, and
Some modes in its only utilizable various mode of principle of each embodiment indicated.Other benefits and novelty
Property feature by as following detailed description is considered in conjunction with the accompanying and becomes apparent, the disclosed embodiments be to include it is all this
A little aspects and they be equal.
Description of the drawings
The drawings herein are incorporated into the specification and forms part of this specification, and shows the implementation for meeting the application
Example, and the principle together with specification for explaining the application.
Fig. 1 is portable light shaft detection instrument structural schematic diagram provided by the invention.
Fig. 2 is the self calibration structural schematic diagram of portable light shaft detection instrument provided by the invention.
Fig. 3 is the laser attenuator assembly structural schematic diagram in portable light shaft detection instrument provided by the invention.
Fig. 4 is laser range finder optical axis calibrator structural schematic diagram provided by the invention.
In figure：1. laser range finder optical system, 2. lasers, 3. transmitting microscope groups, 4. light echos receive microscope group, 5. depth are cut
Only optical filter, 6.APD photodetectors, 7. targets aim at microscope group, 8. field stops, 9. first steering prisms, 10. first steerings
Prismatic decomposition part, 11. first turn to prismatic reflection parts, 12. second turn to prisms, 13. second turn to prismatic reflection parts,
14. second turns to prismatic decomposition part, 15. attenuators, 16. light barriers, 17. attenuators, 18. plane mirrors, 19. achromatisms
Microscope group, 20. Amici prisms, 21.CCD cameras, 22. shading sleeves, 23. visible light sources, 24. adjustable frames, 25. levels
Instrument, 26. analog light sources, 27, metal baffle.
Specific implementation mode
The specific implementation mode of the present invention is described in further detail below in conjunction with the accompanying drawings.
The following description and drawings fully show specific embodiments of the present invention, to enable those skilled in the art to
Put into practice them.Other embodiments may include structure, logic, it is electrical, process and other change.Embodiment
Only represent possible variation.Unless explicitly requested, otherwise individual component and function are optional, and the sequence operated can be with
Variation.The part of embodiment and feature can be included in or replace part and the feature of other embodiments.The present invention's
The range of embodiment includes the entire scope of claims and all obtainable equivalents of claims.
Herein, these embodiments of the invention can individually or generally be indicated that this is used for the purpose of with term " invention "
It is convenient, and if in fact disclosing the invention more than one, be not meant to automatically limit ranging from any list of the application
A invention or inventive concept.
As shown in Figure 1, a kind of portable light shaft detection instrument provided by the invention, including adjustable frames 24, level meter 25,
First, which turns to prism 9, second, turns to prism 12, achromatism microscope group 19, Amici prism 20, visible light source 23 and CCD camera 21,
In addition to adjustable frames 24 and level meter 25, other components all need to be coaxially disposed, and described first turns to 9, second turns of prism
It is coaxially disposed to prism 12, achromatism microscope group 19 and Amici prism 20 and CCD camera 21；The Amici prism 20, shading sleeve
22 and visible light source 23 be coaxially disposed.
Wherein, level meter 25 is housed, the clamping tool of the first steering prism 9 can adjust it on the adjustable frames 24
The clamping tool at pitching and azimuth, the second steering prism 12 can adjust its pitching and azimuth, and achromatism microscope group 19 is one
Group can eliminate the lens combinations of various aberration at and converging to the laser of wavelength 1064nm on focal plane, it is seen that light light
Source 23 switchs controllably, is mounted in moveable shading sleeve 22, before be equipped with aperture, the position of CCD camera 21 can be with
Front and back accurate adjusting.
As shown in Fig. 2, the detector front end is equipped with plane mirror 18；The plane mirror 18 is located at described first
Turn to prism 9 front end, with described first turn to prism 9, second turn to prism 12, achromatism microscope group 19 and Amici prism 20 and
CCD camera 21 is coaxially disposed；The Amici prism 20, shading sleeve 22 and visible light source 23 are coaxially disposed；Calibrate optical axis inspection
Instrument itself light path is surveyed, adjustable frames 24 keep 25 holding of level meter horizontal.Plane mirror 18 and visible light source 23 are set respectively
It sets in mobile mechanism, be moved in light path when being needed when optical axis calibrator, be moved to outside light path after calibration.
The first of calibration optical axis detector turns to prism 9 first, it will be seen that radiant 23 is opened, then is connect in CCD camera 21
Receiving can show that the pitching that the first steering prism 9 is adjusted there are two hot spot makes two hot spot overlap with azimuth on display screen
The position at 21 center of CCD camera, and the position for finely tuning visible light source 23 and CCD camera 21 keeps hot spot minimum, both ensures at this time
First turns to that prism 9 is vertical with optical axis, in turn ensure visible light source 23 and CCD camera 21 receiving plane focal plane position
It sets.The second of recalibration optical axis detector turns to prism 12, wherein second turns to prism 12 after first turns to prism 9,
18 face second of plane mirror is turned into prism 12, placement angle is with optical axis at 90 degree, it will be seen that radiant 23 is opened, if light
Line is not incident perpendicularly to plane mirror 18, then being received at this time in CCD camera 21 can show on display screen there are two hot spot, adjust
The pitching of section the second steering prism 12 makes two hot spots overlap in 21 center of CCD camera, such optical axis with azimuth
Detector calibration is completed, and ensure that the consistency of three optical axises of optical axis detector.
As shown in figure 3, the first steering prism 9, which includes the first steering prismatic decomposition part 10 and first, turns to prismatic reflection portion
Divide 11, second turns to prism 12 turns to prismatic reflection part 13 and the second steering prismatic decomposition part 14 including second.
As shown in figure 4, the detector front end is equipped with laser range finder；The laser range finder includes coaxial arrangement wavelength
The laser 2 and transmitting microscope group 3 of 1064nm, the APD photodetectors 6 of coaxial arrangement, the light echo for including depth edge filter 5
Microscope group 4 is received, target of the coaxial arrangement comprising field stop 8 aims at microscope group 7, and receives systematic optical axis inspection for laser range finder
The removable analog light source 26 and metal baffle 27 surveyed.Wherein, APD photodetectors 6 carry reflective surface, and target aims at microscope group 7
With cross wire division plate, it to be used for run-home；Analog light source 26 is that wavelength identical with 2 wavelength of laser is swashing for 1064nm
Optical diode, and switch controllably, it is mounted in metal baffle 27.Analog light source 26 and metal baffle 27 are separately positioned on shifting
On motivation structure, be moved in light path when being needed when optical axis calibrator, be moved to outside light path after calibration.
Attenuator 15 is equipped between the detector front end and laser range finder, attenuator 15 is used for laser range finder of decaying
The laser that transmitting mirror hair goes out makes the laser into optical axis detector be unlikely to damage the component in optical axis detector, decaying
With emission shaft at 45 degree, light barrier 16 is used for blocking the laser of the reflection of attenuator 17 on piece 17 surface.Wherein, light barrier 16 is black
The metallic plate of processing, it is parallel with transmitting optical axis.
Laser range finder optical axis calibrator mode is：To aiming at optical axis school axis, by the target of laser range finder aim at microscope group 7,
Emit microscope group 3, the light echo reception alignment optical axis detector of microscope group 4, opens visible light source 23, it is another that microscope group 7 can be aimed in target
End can observe bright spot, and adjusting gun sight makes bright spot clearly be located at the center of crosshair, locks gun sight, closes visible light source
23.Again to transmitting optical axis school axis, it is ensured that attenuator 17 has been well placed in the optical path with light barrier 16；Laser 2 is opened, by laser
Device 2 emits laser signal, and laser is incident on attenuator 17 via transmitting microscope group 3, due to attenuator 17 and emits optical axis into 45 degree
It places, in a part of light reflection to light barrier 16, another part light enters second and turns to prism 12, adjusts bowing for transmitting microscope group 3
It faces upward and azimuth, laser is made to converge on the receiving plane of CCD camera 21, demarcate position, and save location information.Finally to receiving
Optical axis school axis, analog light source 26 are mounted in metal baffle 27, and metallic plate blocks analog light source 26 in side, and only side can be with
It shines, in case the light of analog light source 26 directly receives microscope group 4 by light echo enters system for testing optical axis.Analog light source 26 is passed through
Light echo receives 4 lower opening of microscope group and is put into, and opens analog light source 26, and analog light source 26 sends out light identical with 2 wavelength of laser
6 receiving surface of directive APD photodetectors is reflected into light echo by 6 receiving surface of APD photodetectors and receives microscope group 4, leads to
Cross achromatism microscope group 19 and Amici prism 20 focus on the receiving plane of CCD camera 21, adjust light echo receive microscope group 4 pitching with
And azimuth keeps hot spot consistent with the transmitting laser spot position demarcated before, locks light echo reception microscope group 4 after regulating,
Optical axis calibrator is completed.Just ensure that aim at optical axis, transmitting optical axis maintains good concentricity with optical axis is received in this way.
Wherein, transmitting microscope group 3 is adjustable with light echo reception 4 pitch angle of microscope group and azimuth and can be locked at range finder casing
On, and light echo receives and is provided with aperture on the downside of 4 lens barrel of microscope group.
The present invention also provides a kind of portable light shaft detection methods, comprise the steps of：
1) the first of calibration optical axis detector turns to prism 9, is adjusted optical axis detector pedestal to level meter by adjusting
25 keep horizontal, by plane mirror 18 be placed on light echo receive microscope group 4 aim at target the steering prism before microscope group 7 just before
Side is arranged with optical axis at 90 degree, it will be seen that radiant 23 is opened, and light enters Amici prism 20 by aperture, then by disappearing
Aberration microscope group 19 enters second and turns to the steering prism 9 of prism 12 and first, and after first turns to prism 9, light is divided into two
Beam is irradiated on plane mirror 18, if light is not incident perpendicularly on plane mirror 18, is received in CCD camera 21 aobvious
It can show that the pitching that the first steering prism 9 is adjusted there are two hot spot makes two hot spot overlap in CCD phases with azimuth in display screen
The position at 21 center of machine, and the position for finely tuning visible light source 23 and CCD camera 21 keeps hot spot minimum, both ensure that first at this time
Turn to that prism 9 is vertical with optical axis, in turn ensure visible light source 23 and 21 receiving plane of CCD camera focal plane position.
2) the second of calibration optical axis detector turns to prism 12, wherein second turns to prism 12 positioned at the first steering prism 9
Later, plane mirror 18 is put into face second and turns to prism 12, placement angle is with transmitting optical axis at 90 degree, it will be seen that light light
Source 23 is opened, and light enters Amici prism 20 by aperture, then enters second by achromatism microscope group 19 and turn to prism 12, light
It is divided into two beams to be irradiated on plane mirror 18, if light is not incident perpendicularly to plane mirror 18, at this time in CCD phases
Machine 21, which receives, can show that the pitching that the second steering prism 12 is adjusted there are two hot spot makes two hot spot weights with azimuth on display screen
It closes in 21 center of CCD camera, such optical axis detector calibration is completed, and ensure that three optical axises of optical axis detector
Consistency.
3) to aiming at optical axis school axis, the target of laser range finder is aimed at into microscope group 7, transmitting microscope group 3, light echo and receives microscope group 4
Be directed at optical axis detector, open visible light source 23, it is seen that radiant 23 due in the focal plane of achromatism microscope group 19, so through
Become directional light after crossing achromatism microscope group 19, prism 12 is turned into second, the light splitting surface that prism 12 is turned to by second enters
First turns to prism 9, and the light splitting surface for turning to prism 9 by first, a part of light is reflected into the anti-of the first steering prism 9 by 90 degree
It penetrates face and is reflected into target aiming microscope group 7 using 90 degree, can observe that bright spot, adjusting gun sight make bright in the gun sight other end
Point is clearly located at the center of crosshair, locks gun sight, closes visible light source 23.
4) to transmitting optical axis school axis, it is ensured that the attenuator 17 in attenuator 15 has been well placed in the optical path with light barrier 16,
Laser 2 is opened, laser is incident on attenuator 15 via transmitting microscope group 3, since attenuator 17 is placed with transmitting optical axis at 45 degree,
In a part of light reflection to light barrier 16, another part light enters second and turns to prism 12, is incident on the second steering prism 12
Reflecting surface is reflected to the light splitting surface of the second steering prism 12, is reflected on light splitting surface in achromatism microscope group 19, by disappearing
Aberration microscope group 19 and Amici prism 20 adjust pitching and the azimuth of transmitting microscope group 3, laser are made to converge to connecing for CCD camera 21
On receipts face, position, and save location information are demarcated.
5) to receiving optical axis school axis, analog light source 26 is mounted in metal baffle 27, and metallic plate blocks simulated light in side
Source 26, only side can shine, in case the light of analog light source 26 directly receives microscope group 4 by light echo enters optical axis detection system
System.By analog light source 26 by light echo receive 4 lower opening of microscope group be put into, open analog light source 26, analog light source 26 send out with
Identical smooth 6 receiving surface of directive APD photodetectors of 2 wavelength of laser is reflected by 6 receiving surface of APD photodetectors
Microscope group 4 is received into light echo, receiving microscope group 4 by light echo enters the first light splitting surface for turning to prism 9, and prism is turned to by first
9 light splitting surface enters the second light splitting surface for turning to prism 12, enters achromatism microscope group by the light splitting surface of the second steering prism 12
19, it is focused on the receiving plane of CCD camera 21 by achromatism microscope group 19 and Amici prism 20, adjusts light echo and receive microscope group 4
Pitching and azimuth keep hot spot consistent with the transmitting laser spot position demarcated before, and light echo is received microscope group after regulating
4 lockings, optical axis calibrator are completed.
In above-mentioned detailed description, various features are combined together in single embodiment, to simplify the disclosure.No
This published method should be construed to reflect such intention, that is, the embodiment of theme claimed needs clear
The more features of feature stated in each claim to Chu.On the contrary, that reflected such as appended claims
Sample, the present invention are in the state fewer than whole features of disclosed single embodiment.Therefore, appended claims is special
This is expressly incorporated into detailed description, and wherein each claim is used as alone the individual preferred embodiment of the present invention.
Finally it should be noted that：The above embodiments are merely illustrative of the technical scheme of the present invention and are not intended to be limiting thereof, to the greatest extent
Invention is explained in detail with reference to above-described embodiment for pipe, and those of ordinary skill in the art still can be to this hair
Bright specific implementation mode is modified or replaced equivalently, these without departing from spirit and scope of the invention any modification or
Equivalent replacement, within the claims for applying for the pending present invention.
Claims (10)
1. a kind of portable light shaft detection instrument, which is characterized in that the detector includes first be arranged on adjustable frames
Turn to prism, the second steering prism, achromatism microscope group, Amici prism, CCD camera, shading sleeve, visible light source and level
Instrument；
Described first turns to prism, the second steering prism, achromatism microscope group and Amici prism and CCD camera coaxial arrangement；It is described
Amici prism, shading sleeve and visible light source coaxial arrangement.
2. a kind of portable light shaft detection instrument as described in claim 1, which is characterized in that described first to turn to prism include the
One, which turns to prismatic decomposition part and first, turns to prismatic reflection part；Described second turns to prism turns to prismatic reflection including second
Part and second turns to prismatic decomposition part.
3. a kind of portable light shaft detection instrument as described in claim 1, which is characterized in that the detector front end is equipped with plane
Speculum；The plane mirror is located at described first and turns to prism front end, and prism, the second steering rib are turned to described first
Mirror, achromatism microscope group and Amici prism and CCD camera coaxial arrangement.
4. a kind of portable light shaft detection instrument as claimed in claim 3, which is characterized in that it will be seen that radiant is opened, adjust
The pitching of first steering prism makes two hot spots of light source overlap in the position at CCD camera center with azimuth, and finely tunes visible
The position of radiant and CCD camera；Calibrate optical axis detector second turns to prism, and plane mirror face second is turned to rib
Mirror, placement angle is with optical axis at 90 degree, it will be seen that radiant is opened, and is adjusted the pitching of the second steering prism and is made light source with azimuth
Two hot spots overlap in CCD camera center.
5. a kind of portable light shaft detection instrument as described in claim 1, which is characterized in that the detector front end is equipped with laser
Range finder；The laser range finder include coaxial arrangement laser and transmitting microscope group, the APD photodetectors of coaxial arrangement,
Including the light echo of depth edge filter receives microscope group, the target comprising field stop of coaxial arrangement aims at microscope group, and is used for
Laser range finder receives the removable analog light source and metal baffle of systematic optical axis detection.
6. a kind of portable light shaft detection instrument as claimed in claim 5, which is characterized in that the detector front end and Laser Measuring
Away from attenuator is equipped between machine, the attenuator includes the attenuator placed at 45 degree with optical axis and is reflected with laser is prevented
The light barrier of light path.
7. a kind of portable light shaft detection instrument as claimed in claim 5, which is characterized in that aiming at optical axis school axis, by laser
The target of range finder aims at microscope group, transmitting microscope group, light echo and receives microscope group and be directed at optical axis detector, opens visible light source, can be
Target aims at microscope group one end and observes bright spot, and adjusting gun sight makes bright spot clearly be located at the center of crosshair, locks gun sight, closes
Close visible light source.
8. a kind of portable light shaft detection instrument as claimed in claim 5, which is characterized in that transmitting optical axis school axis, open and swash
Light device, laser are incident on attenuator via transmitting microscope group, and attenuator is placed with transmitting optical axis at 45 degree, a part of light reflection to gear
On tabula rasa, another part light enters second and turns to prism, adjusts pitching and the azimuth of transmitting microscope group, laser is made to converge to CCD
On the receiving plane of camera, position, and save location information are demarcated.
9. a kind of portable light shaft detection instrument as claimed in claim 5, which is characterized in that receiving optical axis school axis, simulated light
Source is mounted in metal baffle, and metallic plate blocks analog light source in side, and side shines, and analog light source is received mirror by light echo
Group lower opening is put into, and opens analog light source, and analog light source sends out smooth directive APD photodetectors identical with laser wavelength
Receiving surface is reflected into light echo by APD photodetector receiving surfaces and receives microscope group, passes through achromatism microscope group and light splitting rib
Mirror focuses on the receiving plane of CCD camera, and the pitching and azimuth for adjusting light echo reception microscope group make hot spot and demarcate before
Transmitting laser spot position it is consistent, after regulating by light echo receive microscope group locking, optical axis calibrator complete.
10. a kind of portable light shaft detection method, which is characterized in that the method includes
Calibration optical axis detector precision is adjusted, makes the receiving plane of visible light source and CCD camera in achromatism microscope group focal plane
Position；
Laser range finder is directed at optical axis detector, fine tuning target aims at microscope group, it will be seen that light hot spot images in target gun sight
Group center, pitching and azimuth of the fine-tuned emission microscope group with light echo reception microscope group by the transmitting of laser range finder and receive optical axis
It is calibrated；
Using observation visible light spot, calibration transmitting and position of the light spot received in the same CCD camera, fine tuning target aims at
Microscope group, transmitting microscope group and light echo receive pitching and the azimuth of microscope group, ensure that target aims at optical axis, Laser emission optical axis and returns
Optical signal receives the consistency of optical axis.
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| Application Number | Priority Date | Filing Date | Title |
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| CN201810307166.6A CN108508432A (en) | 2018-04-08 | 2018-04-08 | A kind of portable light shaft detection instrument and its method |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810307166.6A CN108508432A (en) | 2018-04-08 | 2018-04-08 | A kind of portable light shaft detection instrument and its method |
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| Publication Number | Publication Date |
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| CN108508432A true CN108508432A (en) | 2018-09-07 |
Family
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|---|---|---|---|
| CN201810307166.6A Pending CN108508432A (en) | 2018-04-08 | 2018-04-08 | A kind of portable light shaft detection instrument and its method |
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| CN110161486A (en) * | 2019-07-03 | 2019-08-23 | 南昌航空大学 | A kind of device of testing laser radar lens performance |
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| CN112213078B (en) * | 2020-10-09 | 2022-05-20 | 中国人民解放军陆军工程大学 | A portable optical axis detection module for dual-wavelength laser reconnaissance system |
| CN112213078A (en) * | 2020-10-09 | 2021-01-12 | 中国人民解放军陆军工程大学 | Portable optical axis detection module for dual-wavelength laser reconnaissance system |
| CN112648887A (en) * | 2020-12-16 | 2021-04-13 | 航天科工微电子系统研究院有限公司 | Photoelectric tracking and control method based on common-frame radar composite detection |
| CN112763192A (en) * | 2020-12-29 | 2021-05-07 | 福建福光股份有限公司 | Multi-wavelength confocal laser detection optical path with self-calibration function |
| CN113030922A (en) * | 2021-03-30 | 2021-06-25 | 森思泰克河北科技有限公司 | Multi-line laser radar optical machine adjusting device, leveling method and application |
| CN113009667A (en) * | 2021-04-01 | 2021-06-22 | 广东旭业光电科技股份有限公司 | Optical lens optical axis correction device and method |
| CN113608186A (en) * | 2021-09-13 | 2021-11-05 | 中国工程物理研究院应用电子学研究所 | Calibration method for radar system and photoelectric imaging system |
| CN113608186B (en) * | 2021-09-13 | 2023-10-20 | 中国工程物理研究院应用电子学研究所 | Calibration method of radar system and photoelectric imaging system |
| CN116519136A (en) * | 2023-07-03 | 2023-08-01 | 中国科学院合肥物质科学研究院 | A Lunar Direct Spectral Irradiance Meter Co-optical Axis Installation and Adjustment System and Method |
| CN116519136B (en) * | 2023-07-03 | 2023-09-08 | 中国科学院合肥物质科学研究院 | Same-optical-axis adjustment system and method for moon direct spectrum irradiance instrument |
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