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CN105758341B - A kind of artillery barrel inner bore straightness detection equipment - Google Patents

A kind of artillery barrel inner bore straightness detection equipment Download PDF

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Publication number
CN105758341B
CN105758341B CN201510523433.XA CN201510523433A CN105758341B CN 105758341 B CN105758341 B CN 105758341B CN 201510523433 A CN201510523433 A CN 201510523433A CN 105758341 B CN105758341 B CN 105758341B
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line
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CN105758341A (en
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刘浏
范真
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Jiangsu University of Technology
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Jiangsu University of Technology
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Abstract

A kind of artillery barrel bore Linearity surveying equipment, including detection device and target;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, bracket is equipped with main horizontal axis, bracket is equipped with main horizontal axis, it is fixed with the main observation device of No.1 on main horizontal axis, connecting rod is set on the main observation device of No.1, pedestal is equipped on connecting rod, pedestal is equipped with countershaft, the axial line of countershaft and the axial line of connecting rod intersect vertically, and No.1 pair observation device is fixed on countershaft, and No.1 subjectivity survey line and the No.1 pair line of observation are in same plane;The bottom surface of the main body of target is equipped with three support rods being in triangular distribution, spherical contact is fixed on the rod end of every support rod, the top surface of main body is equipped with plane mirror, the mirror surface of plane mirror is formed by plane perpendicular to the centre of sphere by three spherical contacts, the positional relationship of specific identification point there are three setting on plane mirror, each identification point and three spherical contact centre ofs sphere is determining;Present invention measurement is accurate, structure is simple and convenient to operate.

Description

A kind of artillery barrel bore Linearity surveying equipment
Technical field
The present invention relates to artillery barrel bore Linearity surveying equipment.
Background technique
Because processing, gravity, reasons, the axis of gun barrel such as expand with heat and contract with cold are not ideal lines, there is bending.It is light then Artillery shooting precision is influenced, it is heavy then shell is hindered to move, generate expansion or even bombing bore.Evaluate cannon barrel axis bending degree Index, the i.e. straightness of gun barrel.
Existing gun barrel verticality measuring method mainly includes the following categories:
(1) detection method of army's routine: it is that standard straight degree diameter rule are put into gun barrel, can be to close by person Otherwise lattice are unqualified.According to the regulation of GJB4537-2002, once exceeded with the method measurement bending degree, cannon is given To scrap.
The disadvantage of this method is that: qualitative detection can only be carried out.See Cheng Shi, Huangping, " gun barrel Linearity surveying Method and measuring cell selection ", " defense technology basis " 2007(2), p53.
(2) detection method of target range measuring station: it is to measure centering ring center in gun barrel difference with measuring telescope Bias of the position to reference coordinate axle.
The disadvantage of this method is that: vulnerable to the influence of subjective judgement, and also troublesome in poeration, low measurement accuracy, effect Rate is lower.See Sun Jihong, Zhang Wenjie, Yang Qingwen, " development of the development of gun barrel curvature detector ", " computer measurement With control " 2006,14(6) p814.
(3) it is measured using sensor arrays such as laser, PSD/CCD.
Such method is disadvantageous in that: some embodies artillery barrel bore section circle using the optical target of fixed diameter The heart, this does not obviously meet actual conditions;Some need three-jaw or other self-centering units determine the center in each section, depending on Concentric mechanism structure is more complicated, especially when gun barrel bore is less than normal or bigger than normal, to centering machine process and assemble precision It is more demanding;It is required that after operation centering machine is moved to certain axial position inside the gun barrel, then adjust centering machine and be allowed to With the transversal face contact of the axial location accurately to embody the cross section center of circle, it is not easy in operation, is easy to cause biggish survey Measure error;It is crucial that these measurement methods emphasized laser, sensor installation site cannot be guaranteed real embodiment Axis etc..See Zhang Liancun, Zhang Guoyu, pay elegant China etc., " φ 25mm gun barrel straightness photoelectric measurement method ", " optics essence Close engineering " 2004,12(5), p485.See Sun Jihong, Zhang Wenjie, Yang Qingwen, " development of gun barrel curvature detector is ground System ", " computer measurement and control " 2006,14(6) p814.See white Baoxing, Ma Hong, " the lossless inspection of artillery barrel bore straightness Examining system ", " Changchun University of Science and Technology's journal " 2002,25(2), p37.Jian Mayong army, quadriporticus are strong, " artillery barrel bore straightness Automatic checkout system ", " instrumental technique " 2002(1), p11.See Yang Huiyong, Zhang Peilin, Yan Pengcheng etc., " gun barrel curvature Detection method research ", " weaponry automation " 2008,27(9), p19.See Chen Hongjun, Hu Chaogen, Liu Jianjun, " gun barrel Linearity surveying and judging service life ", " marine electronic engineering " 2010,30(3), p171.
Total station is using extremely wide instrument of surveying and mapping.Total station overall structure is divided into two large divisions: pedestal and alidade.According to The telescope in quasi- portion, can in the horizontal plane with 360 are carried out in vertical plane0Rotation, convenient for sighting target.Pedestal is for instrument The connection of leveling and tripod.The cooperative target of total station is most commonly seen with prism.Wherein, prism is generally by pedestal and three feet Frame connection installation, single prism often use centering rod and bracket to install.It is detailed in Li Zeqiu chief editor, publishing house of Wuhan University of Technology 2012 Publish its " total station survey technology ", 2.1 sections, p14-p15 July.
Total station can carry out ranging and angle measurement to certain target point in survey station point simultaneously, obtain distance S, horizontal angle γ, hang down Tri- master datas of right angle α.Rangefinder
When measurement, in survey station point, total station centering leveling, in target point, prism centering leveling.When telescope sights target When, the horizontal limb degree and vertical circle of total station provide horizontal angle and vertical angle of the target point with respect to survey station point respectively.Li Ze Ball chief editor, publishing house of Wuhan University of Technology publishes its " total station survey technology " in July, 2012, and 1.2 sections, p7-p9 describes volume Three kinds of scales such as code scale, grating circle, dynamic scale.
Total station built-in infrared generator and receiver in telescope can emit and coaxial infrared of telescope optic axis Light.If there is the total station of non-prism measurement function, also built-in laser, can emit coaxial with telescope optic axis in telescope Red color visible laser.By two-way time of the measurement light wave on testing distance, tested distance can be obtained.See that protects happiness master It compiles, the Yellow River water conservancy publishing house in August, 2005 publishes its " total station survey technology " p23, p27.
He Baoxi chief editor, the Yellow River water conservancy publishing house in August, 2005 publish its " total station survey technology " second section of chapter 2, The range measurement principle of current total station, mainly impulse method, ranging phase method are described, the Department of Electronics of corresponding complexity is required System.The pulse that impulse method ranging, directly measurement rangefinder issue is tested the time of distance back and forth.It is military according to Ye Xiaoming, Ling Mozhu Chinese university press publishes its " total station errors of principles " p8 in March, 2004, even if the clock frequency for timing have it is atomic small Error, also result in very big measurement error.For example clock frequency is 100MHz, even if having the frequency error of ± 1Hz, ranging Error is also up to ± 1.5m.So impulse method measurement accuracy is low, it is mainly used for long-range low precision measure.Ranging phase method, Principle be by measuring the phase change that continuous modulated signal generates back and forth on testing distance come the indirect determination propagation time, To acquire propagation distance.Ranging phase method is related to complicated control and operation, such as measurement ruler conversion and control, light path converting Control, dim light automatically control, and survey phase rhythm (timing control), the conversion of phase distance, coarse-fine ruler apart from Linking operation etc. (see leaf Know bright, Ling Mozhu, publishing house of Wuhan University publishes its " total station errors of principles " p15 in March, 2004).The electronic system of measurement More than impulse method complexity.Thus many problems be will lead to.Ye Xiaoming, Ling Mozhu, publishing house of Wuhan University publish it in March, 2004 The 3rd chapter of " the total station errors of principles " p42 is analyzed, for example the same frequency photoelectricity in circuit harasses the mistake of period caused by signal Difference, inner quartz crystal oscillator are affected by temperature caused error.Li Guangyun, Li Zongchun chief editor, Mapping Press 2011 1 " industrial measuring system principle and application " p134 of moon publication, caused by also referring to that practical range frequency and design frequency are inconsistent Range error problem.
Have a problem most important to range accuracy, no matter pulse ranging or phase ranging, range accuracy all takes Certainly in the precise measurement to the light velocity in atmosphere.And during actual measurement, the light velocity is by feelings such as atmospheric temperature, humidity, air pressures Condition influences, and needs to measure these meteorologic parameters in advance, and carry out relevant atmospheric correction.It is edited according to Li Zeqiu, Wuhan science and engineering University press publishes its " total station survey technology " p22 in July, 2012, and the atmospheric correction of total station is also and used in the total station The wavelength of ranging light wave is related.
Summary of the invention
It is an object of the invention to propose a kind of to measure accurate, easy to operate artillery barrel bore Linearity surveying and set It is standby.
In order to achieve the above objectives, the present invention takes one of technical solution as follows: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with the main observation device of No.1 on main horizontal axis, and the main observation device of No.1 is a telescope, and collimation axis is known as No.1 master The line of observation, No.1 subjectivity survey line are arranged on the main observation device of No.1 and connect by main intersection point and perpendicular to the axial line of main horizontal axis Bar, the axial line of connecting rod are equipped with pedestal, pedestal, which is equipped with, to be enclosed by main intersection point and perpendicular to No.1 subjectivity survey line on connecting rod The countershaft rotated around self-axis line, the axial line and No.1 subjectivity survey line of countershaft are at spatial vertical, and the axis with connecting rod Heart line intersects vertically, and forms auxiliary intersection point, and No.1 pair observation device is fixed on countershaft, and No.1 pair observation device is looked in the distance for one Mirror, collimation axis are known as the No.1 pair line of observation, and the No.1 pair line of observation passes through auxiliary intersection point and the axial line perpendicular to countershaft, No.1 master The line of observation and the No.1 pair line of observation are in same plane;Horizontal limb, main horizontal axis are installed between vertical pivot and horizontal rotation platform Main dial is installed between bracket corresponding site, secondary scale is installed between countershaft and pedestal corresponding site;Above-mentioned horizontal rotation is flat The rotation of platform, main horizontal axis and countershaft is manual;The target has main body, and the bottom surface of main body is equipped with into triangle point Three support rods of cloth, spherical contact is fixed on the rod end of every support rod, and the top surface of main body is equipped with plane mirror, plane mirror On set there are three specific identification point, measure the positional relationship of three identification points and three spherical contact centre ofs sphere;In use, work Target is in artillery barrel bore, and the spherical contact on three support rods is against on artillery barrel bore wall, and No.1 subjectivity is surveyed Line and the No.1 pair line of observation intersect at first identification point, determine the coordinate of the relatively main intersection point of first identification point, and so on, Determine the coordinate position of second identification point, third identification point, the coordinate position of three spherical contact centre ofs sphere is able to really as a result, It is fixed.
In order to achieve the above objectives, the present invention takes the two as follows of technical solution: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with No. two main observation devices on main horizontal axis, and No. two main observation devices are a telescope, and collimation axis is known as No. two masters The line of observation, No. two subjective surveys line are arranged on No. two main observation devices and connect by main intersection point and perpendicular to the axial line of main horizontal axis Bar, the axial line of connecting rod are equipped with pedestal, pedestal, which is equipped with, to be enclosed by main intersection point and perpendicular to No. two subjective surveys line on connecting rod The countershaft rotated around self-axis line, the axial line of countershaft and No. two subjective surveys line are at spatial vertical, and the axis with connecting rod Heart line intersects vertically, and forms auxiliary intersection point, No. two secondary observation devices is fixed on countershaft, No. two secondary observation devices are built in one The telescope of CCD digital camera, collimation axis are known as No. two secondary lines of observation, and No. two secondary lines of observation are by auxiliary intersection point and perpendicular to pair The axial line of axis, No. two subjective surveys line and No. two secondary lines of observation are in same plane;It is installed between vertical pivot and horizontal rotation platform There is horizontal limb, main dial is installed between main horizontal axis and bracket corresponding site, pair degree is installed between countershaft and pedestal corresponding site Disk;Above-mentioned horizontal rotation platform and main horizontal axis rotate to be manually, and rotating to be for countershaft is electronic;The target has master Body, the bottom surface of main body are equipped with three support rods being in triangular distribution, are fixed with spherical contact on the rod end of every support rod, The top surface of main body is equipped with plane mirror, sets that there are three specific identification points on plane mirror, measures three identification points and three spherical The positional relationship of the contact centre of sphere;In use, target is in artillery barrel bore, the spherical contact on three support rods is supported On artillery barrel bore wall, No. two subjective surveys line and No. two secondary lines of observation intersect at first identification point, determine first mark Know a coordinate for the relatively main intersection point of point, and so on, determine the coordinate position of second identification point, third identification point, as a result, three The coordinate position of a spherical contact centre of sphere is determined.
In order to achieve the above objectives, the present invention takes the three as follows of technical solution: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with No. three main observation devices on main horizontal axis, and No. three main observation devices are the telescope of an in-built CCD digital camera, Its collimation axis is known as No. three subjective surveys line, and No. three subjective surveys line are by main intersection point and perpendicular to the axial line of main horizontal axis, at No. three Connecting rod is set on main observation device, and the axial line of connecting rod is equipped on connecting rod by main intersection point and perpendicular to No. three subjective surveys line Pedestal, pedestal is equipped with can be around the countershaft that self-axis line is rotated, and the axial line of countershaft and No. three subjective surveys line are at sky Between it is vertical, and intersect vertically with the axial line of connecting rod, form auxiliary intersection point, be fixed with No. three secondary observation devices on countershaft, No. three Secondary observation device is the telescope of an in-built CCD digital camera, and collimation axis is known as No. three secondary lines of observation, and No. three secondary lines of observation are logical Auxiliary intersection point and the axial line perpendicular to countershaft are crossed, No. three subjective surveys line and No. three secondary lines of observation are in same plane;Vertical pivot and water Horizontal limb is installed between flat revolving platform, main dial, countershaft and pedestal phase are installed between main horizontal axis and bracket corresponding site It answers and secondary scale is installed between position;The rotation of above-mentioned horizontal rotation platform, main horizontal axis and countershaft is electronic;The target With main body, the bottom surface of main body is equipped with three support rods being in triangular distribution, and is fixed with ball on the rod end of every support rod Shape contact, the top surface of main body are equipped with plane mirror, set that there are three specific identification points on plane mirror, measure three identification points and three The positional relationship of a spherical contact centre of sphere;In use, target is in artillery barrel bore, it is spherical on three support rods Contact is against on artillery barrel bore wall, and No. three subjective surveys line and No. three secondary lines of observation intersect at first identification point, determines the The coordinate of the relatively main intersection point of one identification point, and so on, determine the coordinate position of second identification point, third identification point, The coordinate position of three spherical contact centre ofs sphere is determined as a result,.
In order to achieve the above objectives, the present invention takes the four as follows of technical solution: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with No. four main observation devices on main horizontal axis, and No. four main observation devices are a laser, and optical axis is known as No. four subjectivities Connecting rod is arranged on No. four main observation devices by main intersection point and perpendicular to the axial line of main horizontal axis in survey line, No. four subjective surveys line, The axial line of connecting rod is equipped with pedestal, pedestal is equipped with and can surround by main intersection point and perpendicular to No. four subjective surveys line on connecting rod The countershaft that self-axis line is rotated, the axial line of countershaft and No. four subjective surveys line are at spatial vertical, and the axle center with connecting rod Line intersects vertically, and forms auxiliary intersection point, and No. four secondary observation devices are fixed on countershaft, and No. four secondary observation devices are a laser, Its optical axis is known as No. four secondary lines of observation, and No. four secondary lines of observation pass through auxiliary intersection point and the axial line perpendicular to countershaft, No. four subjective surveys Line and No. four secondary lines of observation are in same plane;Horizontal limb, main horizontal axis and branch are installed between vertical pivot and horizontal rotation platform Main dial is installed between frame corresponding site, secondary scale is installed between countershaft and pedestal corresponding site;Above-mentioned horizontal rotation platform, The rotation of main horizontal axis and countershaft is manual;The target has main body, and the bottom surface of main body, which is equipped with, to be in triangular distribution Three support rods, be fixed with spherical contact on the rod end of every support rod, set on the top surface of main body there are three PSD sensor, The photosurface of all PSD sensors is generally aligned in the same plane, and the photosurface of each PSD sensor is equipped with a specified point, and three The mutual alignment relation of specified point and three spherical contact centre ofs sphere is determining;In use, target is in gun barrel Thorax, the spherical contact on three support rods are against on artillery barrel bore wall, and No. four subjective surveys line and No. four secondary lines of observation are handed over In first specified point can determine the coordinate of the relatively main intersection point of first specified point, and so on, determine second specified point, The coordinate position of third specified point, the coordinate position of three spherical contact centre ofs sphere is determined as a result,.
In order to achieve the above objectives, the present invention takes the five as follows of technical solution: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with No. five main observation devices on main horizontal axis, and No. five main observation devices are a laser, and optical axis is known as No. five subjectivities Connecting rod is arranged on No. five main observation devices by main intersection point and perpendicular to the axial line of main horizontal axis in survey line, No. five subjective surveys line, The axial line of connecting rod is equipped with pedestal, pedestal is equipped with and can surround by main intersection point and perpendicular to No. five subjective surveys line on connecting rod The countershaft that self-axis line is rotated, the axial line of countershaft and No. five subjective surveys line are at spatial vertical, and the axle center with connecting rod Line intersects vertically, and forms auxiliary intersection point, and No. five secondary observation devices are fixed on countershaft, and No. five secondary observation devices are a laser, Its optical axis is known as No. five secondary lines of observation, and No. five secondary lines of observation pass through auxiliary intersection point and the axial line perpendicular to countershaft, No. five subjective surveys Line and No. five secondary lines of observation are in same plane;Horizontal limb, main horizontal axis and branch are installed between vertical pivot and horizontal rotation platform Main dial is installed between frame corresponding site, secondary scale is installed between countershaft and pedestal corresponding site;Above-mentioned horizontal rotation platform and Main horizontal axis rotates to be manually, and rotating to be for countershaft is electronic;The target has main body, and the bottom surface of main body is equipped at three Three support rods of angular distribution are fixed with spherical contact on the rod end of every support rod, set that there are three PSD on the top surface of main body The photosurface of sensor, all PSD sensors is generally aligned in the same plane, and the photosurface of each PSD sensor is equipped with one and specifies The mutual alignment relation of point, three specified points and three spherical contact centre ofs sphere is determining;In use, target is in cannon Thorax in barrel, the spherical contact on three support rods are against on artillery barrel bore wall, and No. five subjective surveys line and No. five secondary are seen Survey line intersects at first specified point, determines the coordinate of the relatively main intersection point of first specified point, and so on, determine second finger The coordinate position of fixed point, third specified point, the coordinate position of three spherical contact centre ofs sphere is determined as a result,.
In order to achieve the above objectives, the present invention takes the six as follows of technical solution: the present invention includes detection device and work mesh Mark;The detection device has pedestal, horizontal rotation platform, bracket and vertical pivot, and bracket is fixed on horizontal rotation platform, vertical pivot It is fixedly connected with pedestal, horizontal rotation platform is in the axial line on pedestal and around vertical pivot and rotates, and bracket is equipped with horizontal And can intersect around the main horizontal axis that self-axis line is rotated, the axial line of main horizontal axis with the axial line of vertical pivot, form main friendship Point is fixed with No. six main observation devices on main horizontal axis, and No. six main observation devices are a laser, and optical axis is known as No. six subjectivities Connecting rod is arranged on No. six main observation devices by main intersection point and perpendicular to the axial line of main horizontal axis in survey line, No. six subjective surveys line, The axial line of connecting rod is equipped with pedestal, pedestal is equipped with and can surround by main intersection point and perpendicular to No. six subjective surveys line on connecting rod The countershaft that self-axis line is rotated, the axial line of countershaft and No. six subjective surveys line are at spatial vertical, and the axle center with connecting rod Line intersects vertically, and forms auxiliary intersection point, and No. six secondary observation devices are fixed on countershaft, and No. six secondary observation devices are a laser, Its optical axis is known as No. six secondary lines of observation, and No. six secondary lines of observation pass through auxiliary intersection point and the axial line perpendicular to countershaft, No. six subjective surveys Line and No. six secondary lines of observation are in same plane;Horizontal limb, main horizontal axis and branch are installed between vertical pivot and horizontal rotation platform Main dial is installed between frame corresponding site, secondary scale is installed between countershaft and pedestal corresponding site;Above-mentioned horizontal rotation platform, master The rotation of horizontal axis and countershaft is electronic;The target has a main body, and the bottom surface of main body, which is equipped with, to be in triangular distribution Three support rods are fixed with spherical contact on the rod end of every support rod, set that there are three PSD sensor, institutes on the top surface of main body There is the photosurface of PSD sensor to be generally aligned in the same plane, the photosurface of each PSD sensor is equipped with a specified point, three fingers Fixed point and the mutual alignment relation of three spherical contact centre ofs sphere are determining;In use, target is in artillery barrel bore, Spherical contact on its three support rods is against on artillery barrel bore wall, and No. six subjective surveys line and No. six secondary lines of observation intersect at First specified point determines the coordinate of the relatively main intersection point of first specified point, and so on, determine second specified point, third The coordinate position of a specified point, the coordinate position of three spherical contact centre ofs sphere is determined as a result,.
The present invention has following good effect: test equipment of the invention is relatively simple, and test process is simple and easy In grasp, data processing software programming is simple, and measuring accuracy is high;Electronic equipment greatly simplifies, and external environment is for electronic system Adverse effect greatly reduce;Ranging process and the light velocity of the invention is unrelated, when measurement, just no longer need to measurement temperature, air pressure, The atmospheric conditions such as humidity, more adaptation field environment.The present invention can greatly simplify the calibrating to electro-optical distance measurement system.
Detailed description of the invention
Fig. 1 is the schematic diagram of embodiment 1.
Fig. 2 is the simple side view (omitting secondary observation device) of Fig. 1.
Fig. 3 is the angle measurement schematic diagram of embodiment 1.
Fig. 4 is the schematic diagram of embodiment 2.
Fig. 5 is the simple side view (omitting secondary observation device) of Fig. 4.
Fig. 6 is the angle measurement schematic diagram of embodiment 2.
Fig. 7 is the schematic diagram of embodiment 3.
Fig. 8 is the simple side view (omitting secondary observation device) of Fig. 7.
Fig. 9 is the angle measurement schematic diagram of embodiment 3.
Figure 10 is the schematic diagram of embodiment 4.
Figure 11 is the simple side view (omitting secondary observation device) of Figure 10.
Figure 12 is the angle measurement schematic diagram of embodiment 4.
Figure 13 is the schematic diagram of embodiment 5.
Figure 14 is the simple side view (omitting secondary observation device) of Figure 13.
Figure 15 is the angle measurement schematic diagram of embodiment 5.
Figure 16 is the schematic diagram of embodiment 6.
Figure 17 is the simple side view (omitting secondary observation device) of Figure 16.
Figure 18 is the angle measurement schematic diagram of embodiment 6.
Specific embodiment
Embodiment 1
See Fig. 1 to Fig. 3, embodiment 1 includes detection device and target.The detection device has pedestal 1, horizontal time Turn platform 2, bracket 4 and vertical pivot 9, bracket 4 is fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, horizontal rotation Platform 2 is in the axial line 9a on pedestal 1 and around vertical pivot 9 and rotates, and bracket 4 is equipped with horizontal and can surround self-axis line The main horizontal axis 5 rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In main horizontal axis 5 On be fixed with the main observation device 6-1 of No.1, the main observation device 6-1 of No.1 is a telescope, and collimation axis is known as the survey of No.1 subjectivity Line 6-1a, No.1 subjectivity survey line 6-1a are by main intersection point and perpendicular to the axial line 5a of main horizontal axis 5.In the main observation device 6- of No.1 Connecting rod 13 is set on 1, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No.1 subjectivity survey line 6-1a, on connecting rod 13 Equipped with pedestal 10, pedestal 10 is equipped with can be around the countershaft 8 that self-axis line is rotated, the axial line 8a and No.1 of countershaft 8 Subjective survey line 6-1a intersects vertically at spatial vertical, and with the axial line 13a of connecting rod 13, forms auxiliary intersection point.It is fixed on countershaft 8 Having No.1 pair observation device 7-1, No.1 pair observation device 7-1 is a telescope, and collimation axis is known as No.1 pair line of observation 7-1a, No.1 pair line of observation 7-1a is seen by auxiliary intersection point and the axial line 8a perpendicular to countershaft 8, No.1 subjectivity survey line 6-1a and No.1 pair Survey line 7-1a is in same plane.Horizontal limb 3,4 phase of main horizontal axis 5 and bracket are installed between vertical pivot 9 and horizontal rotation platform 2 Installation main dial 11 between position is answered, secondary scale 12 is installed between 10 corresponding site of countershaft 8 and pedestal.Horizontal limb 3 is for surveying Measure the angle of revolution of horizontal rotation platform 2, main dial 11 be used to measure No.1 subjectivity survey line 6-1a and vertical pivot 9 axial line 9a it Between angle, that is, vertical angle α size, secondary scale 12 be used to measure No.1 pair line of observation 7-1a and connecting rod 13 axial line 13a it Between angle, that is, pivot angle β size.
The rotation of above-mentioned horizontal rotation platform 2, main horizontal axis 5 and countershaft 8 is manual.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, Spherical contact 22 is fixed on the rod end of every support rod, the top surface of main body 20 is equipped with plane mirror 23, and plane mirror 23 is equipped with The mutual alignment relation of three specific identification points, three identification points and three spherical 22 centre ofs sphere of contact is determining.In use, Target is in artillery barrel bore, and the spherical contact 22 on three support rods 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, the main observation device 6-1 of No.1 can synchronous water with No.1 pair observation device 7-1 Flat revolution.The rotational energy of main horizontal axis 5 drives the main observation device 6-1 of No.1 to make pitching, and the main observation device 6-1 of No.1 passes through connecting rod 13 No.1 pair observation device 7-1 is driven to make pitching, the rotation of countershaft 8 drives No.1 pair observation device 7-1 rotation, No.1 subjectivity survey line 6-1a and No.1 pair line of observation 7-1a is in same plane, and No.1 pair line of observation 7-1a is rotated in above-mentioned plane, as a result, No.1 Subjective survey line 6-1a and No.1 pair line of observation 7-1a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.Surveyor operates the main observation device 6-1 of No.1, artificial to aim at first identification point of plane mirror in cooperative target, so that first A identification point is located on No.1 subjectivity survey line 6-1a.Horizontal limb 3 provides the angle of revolution of horizontal rotation platform 2, main dial 11 Provide the value of the value of vertical angle α.Surveyor adjusts No.1 pair observation device 7-1 again later, artificial to aim at plane in cooperative target First identification point of mirror so that first identification point is located on No.1 pair line of observation 7-1a, at this point, No.1 subjectivity survey line 6-1a and No.1 pair line of observation 7-1a intersects at first identification point, and secondary scale 12 provides the value of pivot angle β, completes point measurement.According to The value of the distance h of the value of pivot angle β, known main intersection point and auxiliary intersection point obtains first mark finally by data processing section The value of point and main intersection point distance S.Angle of revolution and vertical angle α in conjunction with horizontal rotation platform 2 can determine first mark The coordinate of the relatively main intersection point of point.And so on, determine the coordinate position of second identification point, third identification point, at this time Determine the sphere centre coordinate of three He the tangent spherical contact 22 of artillery barrel bore wall.Cooperative target is moved in gun barrel The other several place positions of thorax, repeat the above process.It can determine artillery barrel bore straightness by data processing section.
Embodiment 2
See that fig. 4 to fig. 6, embodiment 2 include detection device and target.The detection device has pedestal 1, horizontal time Turn platform 2, bracket 4 and vertical pivot 9, bracket 4 is fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, horizontal rotation Platform 2 is in the axial line 9a on pedestal 1 and around vertical pivot 9 and rotates, and bracket 4 is equipped with horizontal and can surround self-axis line The main horizontal axis 5 rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In main horizontal axis 5 On be fixed with No. two main observation device 6-2, No. two main observation device 6-2 are a telescope, and collimation axis is known as No. two and subjective surveys Line 6-2a, No. two subjectivity survey line 6-2a are by main intersection point and perpendicular to the axial line 5a of main horizontal axis 5.In No. two main observation device 6- Connecting rod 13 is set on 2, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No. two subjective survey line 6-2a, on connecting rod 13 Equipped with pedestal 10, pedestal 10, which is equipped with, can surround the countershaft 8 that is rotated of self-axis line, the axial line 8a of countershaft 8 and No. two Subjective survey line 6-2a intersects vertically at spatial vertical, and with the axial line 13a of connecting rod 13, forms auxiliary intersection point.It is fixed on countershaft 8 There are No. two secondary observation device 7-2, No. two pair observation device 7-2 are the telescope of an in-built CCD digital camera, and collimation axis is known as No. two secondary line of observation 7-2a, No. two pair line of observation 7-2a are by auxiliary intersection point and perpendicular to the axial line 8a of countershaft 8, No. two subjective surveys Line 6-2a and No. two pair line of observation 7-2a are in same plane.Horizontal limb 3 is installed between vertical pivot 9 and horizontal rotation platform 2, Main dial 11 is installed between 4 corresponding site of main horizontal axis 5 and bracket, secondary scale 12 is installed between 10 corresponding site of countershaft 8 and pedestal. Horizontal limb 3 is used to measure the angle of revolution of horizontal rotation platform 2, and main dial 11 is for measuring No. two subjectivity survey line 6-2a and erecting Angle, that is, vertical angle α size between the axial line 9a of axis 9, secondary scale 12 is for measuring No. two pair line of observation 7-2a and connecting rod Angle, that is, pivot angle β size between 13 axial line 13a.
Above-mentioned horizontal rotation platform 2 rotates to be manually, and main horizontal axis 5 rotates to be manually, and the rotation of countershaft 8 is driven by motor It is dynamic, motor servo motor or ultrasound electric machine.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, Spherical contact 22 is fixed on the rod end of every support rod, the top surface of main body 20 is equipped with plane mirror 23, and plane mirror 23 is equipped with The mutual alignment relation of three specific identification points, three identification points and three spherical 22 centre ofs sphere of contact is determining.In use, Target is in artillery barrel bore, and the spherical contact 22 on three support rods 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, No. two main observation device 6-2 and No. two pair observation device 7-2 can synchronize water Flat revolution.The rotational energy of main horizontal axis 5 drives No. two main observation device 6-2 to make pitching, and No. two main observation device 6-2 pass through connecting rod 13 No. two pair observation device 7-2 are driven to make pitching, the rotation of countershaft 8 drives No. two pair observation device 7-2 rotations, No. two subjective surveys line 6-2a and No. two pair line of observation 7-2a is in same plane, and No. two pair line of observation 7-2a are rotated in above-mentioned plane, and No. two as a result, Subjective survey line 6-2a and No. two pair line of observation 7-2a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.Surveyor operates No. two main observation device 6-2, artificial to aim at first identification point of plane mirror in cooperative target, so that first A identification point is located on No. two subjective survey line 6-2a.Horizontal limb 3 provides the angle of revolution of horizontal rotation platform 2, main dial 11 Provide the value of vertical angle α.Later, No. two pair observation device 7-2 are driven by motor, in the CCD built in No. two secondary observation device 7-2 Under the control of digital camera feedback signal, first identification point of plane mirror in automatic aiming cooperative target, so that first identification point On No. two secondary line of observation 7-2a, at this point, No. two subjectivity survey line 6-2a and No. two pair line of observation 7-2a intersect at this first Identification point, secondary scale 12 provide the value of pivot angle β, complete point measurement.According to the value of pivot angle β, known main intersection point and auxiliary intersection point Distance h value, finally by data processing section obtain first identification point and main intersection point distance S value.In conjunction with level The angle of revolution of revolving platform 2 and vertical angle α can determine the coordinate of the relatively main intersection point of first identification point.And so on, really The coordinate position of fixed second identification point, third identification point, can determine at this time three it is tangent with artillery barrel bore wall The sphere centre coordinate of spherical contact 22.Cooperative target is moved to artillery barrel bore in addition several place positions, is repeated the above process. It can determine artillery barrel bore straightness by data processing section.
Embodiment 3
See Fig. 7 to Fig. 9, embodiment 3 includes detection device and target.The detection device has pedestal 1, horizontal time Turn platform 2, bracket 4 and vertical pivot 9, bracket 4 is fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, horizontal rotation Platform 2 is in the axial line 9a on pedestal 1 and around vertical pivot 9 and rotates, bracket 4 is equipped with horizontal and can surround Pivot Point Center The main horizontal axis 5 that line is rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In main cross No. three main observation device 6-3 are fixed on axis 5, No. three main observation device 6-3 are the telescope of an in-built CCD digital camera, Collimation axis is known as No. three subjective survey line 6-3a, and No. three subjectivity survey line 6-3a are by main intersection point and perpendicular to the axial line of main horizontal axis 5 5a.Connecting rod 13 is set on No. three main observation device 6-3, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No. three masters Line of observation 6-3a is equipped with pedestal 10 on connecting rod 13, and pedestal 10, which is equipped with, can surround the countershaft 8 that self-axis line is rotated, The axial line 8a of countershaft 8 and No. three subjectivity survey line 6-3a intersect vertically at spatial vertical, and with the axial line 13a of connecting rod 13, shape At auxiliary intersection point.No. three secondary observation device 7-3 are fixed on countershaft 8, No. three pair observation device 7-3 are an in-built CCD number phase The telescope of machine, collimation axis are known as No. three secondary line of observation 7-3a, and No. three pair line of observation 7-3a are by auxiliary intersection point and perpendicular to pair The axial line 8a, No. three subjectivity survey line 6-3a of axis 8 and No. three pair line of observation 7-3a are in same plane.Vertical pivot 9 and horizontal rotation Horizontal limb 3 is installed between platform 2, main dial 11, countershaft 8 and pedestal 10 are installed between 4 corresponding site of main horizontal axis 5 and bracket Secondary scale 12 is installed between corresponding site.Horizontal limb 3 is used to measure the angle of revolution of horizontal rotation platform 2, and main dial 11 is used In measuring angle, that is, vertical angle α size between No. three subjectivities survey line 6-3a and the axial line 9a of vertical pivot 9, secondary scale 12 is used for Measure the angle i.e. size of pivot angle β between No. three pairs line of observation 7-3a and the axial line 13a of connecting rod 13.
The rotation of above-mentioned horizontal rotation platform 2, main horizontal axis 5 and countershaft 8 is independently driven by respective motor respectively, and motor is to watch Take motor or ultrasound electric machine.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, Spherical contact 22 is fixed on the rod end of every support rod, the top surface of main body 20 is equipped with plane mirror 23, and plane mirror 23 is equipped with The mutual alignment relation of three specific identification points, three identification points and three spherical 22 centre ofs sphere of contact is determining.In use, Target is in artillery barrel bore, and the spherical contact 22 on three support rods 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, No. three main observation device 6-3 and No. three pair observation device 7-3 can synchronize water Flat revolution.The rotational energy of main horizontal axis 5 drives No. three main observation device 6-3 to make pitching, and No. three main observation device 6-3 pass through connecting rod 13 No. three pair observation device 7-3 are driven to make pitching, the rotation of countershaft 8 drives No. three pair observation device 7-3 rotations, No. three subjective surveys line 6-3a and No. three pair line of observation 7-3a is in same plane, and No. three pair line of observation 7-3a are rotated in above-mentioned plane, and No. three as a result, Subjective survey line 6-3a and No. three pair line of observation 7-3a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.Horizontal rotation platform 2 is by its motor driven, and main horizontal axis 5 is by its motor driven, in the CCD built in No. three main observation device 6-3 Under the control of digital camera feedback signal, first identification point of plane mirror in No. three main observation device 6-3 automatic aiming cooperative targets, So that first identification point is located on No. three subjective survey line 6-3a.Horizontal limb 3 provides the angle of revolution of horizontal rotation platform 2, Main dial 11 provides the value of vertical angle α.Countershaft 8 is by its motor driven later, in the CCD number built in No. three secondary observation device 7-3 Under the control of word camera feedback signal, first identification point of plane mirror in No. three secondary observation device 7-3 automatic aiming cooperative targets makes It obtains first identification point to be located on No. three secondary line of observation 7-3a, at this point, No. three subjectivity survey line 6-3a and No. three secondary line of observation 7-3a First identification point is intersected at, secondary scale 12 provides the value of pivot angle β, completes point measurement.According to the value of pivot angle β, known The value of the distance h of main intersection point and auxiliary intersection point obtains first identification point and main intersection point distance S's finally by data processing section Value.Angle of revolution and vertical angle α in conjunction with horizontal rotation platform 2, that is, can determine the seat of the relatively main intersection point of first identification point Mark.And so on, it determines the coordinate position of second identification point, third identification point, can determine three and cannon body at this time The sphere centre coordinate of the tangent spherical contact 22 of bore wall in managing.Cooperative target is moved to artillery barrel bore in addition several place positions It sets, repeats the above process.It can determine artillery barrel bore straightness by data processing section.
Embodiment 4
See Figure 10 to Figure 12, embodiment 4 includes detection device and target.The detection device has pedestal 1, level Revolving platform 2, bracket 4 and vertical pivot 9, bracket 4 are fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, and level is returned Turn the axial line 9a that platform 2 is on pedestal 1 and around vertical pivot 9 to rotate, bracket 4 is equipped with horizontal and can surround itself axis The main horizontal axis 5 that heart line is rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In master No. four main observation device 6-4 are fixed on horizontal axis 5, No. four main observation device 6-4 are a laser, and optical axis is known as No. four subjectivities Survey line 6-4a, No. four subjectivity survey line 6-4a are by main intersection point and perpendicular to the axial line 5a of main horizontal axis 5.In No. four main observation devices Connecting rod 13 is set on 6-4, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No. four subjective survey line 6-4a, in connecting rod 13 It is equipped with pedestal 10, pedestal 10 is equipped with can be around the countershaft 8 that self-axis line is rotated, the axial line 8a of countershaft 8 and four Number subjectivity survey line 6-4a intersects vertically at spatial vertical, and with the axial line 13a of connecting rod 13, forms auxiliary intersection point.It is solid on countershaft 8 Surely having No. four secondary observation device 7-4, No. four pair observation device 7-4 is a laser, and optical axis is known as No. four secondary line of observation 7-4a, No. four pair line of observation 7-4a are seen by auxiliary intersection point and perpendicular to the axial line 8a, No. four subjectivity survey line 6-4a of countershaft 8 and No. four are secondary Survey line 7-4a is in same plane.Horizontal limb 3 is installed, in main horizontal axis 5 and bracket 4 between vertical pivot 9 and horizontal rotation platform 2 Main dial 11 is installed between corresponding site, secondary scale 12 is installed between 10 corresponding site of countershaft 8 and pedestal.Horizontal limb 3 is used In the angle of revolution of measurement horizontal rotation platform 2, main dial 11 is used to measure the axial line of No. four subjectivities survey line 6-4a and vertical pivot 9 Angle, that is, vertical angle α size between 9a, secondary scale 12 are used to measure the axial line of No. four pairs line of observation 7-4a and connecting rod 13 Angle, that is, pivot angle β size between 13a.
The rotation of above-mentioned horizontal rotation platform 2, main horizontal axis 5 and countershaft 8 is manual.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, It is fixed with spherical contact 22 on the rod end of every support rod, is set on the top surface of main body 20 there are three PSD sensor 24, all PSD The photosurface of sensor is generally aligned in the same plane M, and the photosurface of each PSD sensor 24 is equipped with a specified point, measures three The positional relationship of specified point and three spherical 22 centre ofs sphere of contact;In use, target is in artillery barrel bore, three branch Spherical contact 22 on strut 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, No. four main observation device 6-4 and No. four pair observation device 7-4 can synchronize water Flat revolution.The rotational energy of main horizontal axis 5 drives No. four main observation device 6-4 to make pitching, and No. four main observation device 6-4 pass through connecting rod 13 No. four pair observation device 7-4 are driven to make pitching, the rotation of countershaft 8 drives No. four pair observation device 7-4 rotations, No. four subjective surveys line 6-4a and No. four pair line of observation 7-4a is in same plane, and No. four pair line of observation 7-4a are rotated in above-mentioned plane, and No. four as a result, Subjective survey line 6-4a and No. four pair line of observation 7-4a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.When measurement, No. four main observation device 6-4 are opened, close No. four secondary observation device 7-4.Surveyor operates No. four subjective survey and fills 6-4 is set, according to first PSD sensor feedback signal, first PSD sensor specified point is manually aimed at, so that the specified point On No. four subjective survey line 6-4a, horizontal limb 3 provides the angle of revolution of horizontal rotation platform 2, and main dial 11 provides vertically The value of angle α.Later, No. four main observation device 6-4 are closed, No. four secondary observation device 7-4 are opened.Surveyor adjusts No. four secondary sights again It surveys device 7-4 and the PSD sensor specified point is manually aimed at, so that the specified point is located at according to the PSD sensor feedback signal On No. four secondary line of observation 7-4a, at this point, No. four subjectivity survey line 6-4a and No. four pair line of observation 7-4a intersect at the specified point, secondary degree Disk 12 provides the value of pivot angle β, completes specified point measurement.According to the value of pivot angle β, the distance h of known main intersection point and auxiliary intersection point Value, the value of the specified point Yu main intersection point distance S is obtained finally by data processing section.In conjunction with horizontal rotation platform 2 Angle of revolution and vertical angle α can determine the coordinate of the relatively main intersection point of the specified point.And so on, determine second specified point, The coordinate position of third specified point can determine the centre of sphere of three He the tangent spherical contact 22 of artillery barrel bore wall at this time Coordinate.Cooperative target is moved to artillery barrel bore in addition several place positions, is repeated the above process.Pass through data processing section It can determine artillery barrel bore straightness.
Embodiment 5
See Figure 13 to Figure 15, embodiment 5 includes detection device and target.The detection device has pedestal 1, level Revolving platform 2, bracket 4 and vertical pivot 9, bracket 4 are fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, and level is returned Turn the axial line 9a that platform 2 is on pedestal 1 and around vertical pivot 9 to rotate, bracket 4 is equipped with horizontal and can surround itself axis The main horizontal axis 5 that heart line is rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In master No. five main observation device 6-5 are fixed on horizontal axis 5, No. five main observation device 6-5 are a laser, and optical axis is known as No. five subjectivities Survey line 6-5a, No. five subjectivity survey line 6-5a are by main intersection point and perpendicular to the axial line 5a of main horizontal axis 5.In No. five main observation devices Connecting rod 13 is set on 6-5, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No. five subjective survey line 6-5a, in connecting rod 13 It is equipped with pedestal 10, pedestal 10 is equipped with can be around the countershaft 8 that self-axis line is rotated, the axial line 8a of countershaft 8 and five Number subjectivity survey line 6-5a intersects vertically at spatial vertical, and with the axial line 13a of connecting rod 13, forms auxiliary intersection point.It is solid on countershaft 8 Surely having No. five secondary observation device 7-5, No. five pair observation device 7-5 is a laser, and optical axis is known as No. five secondary line of observation 7-5a, No. five pair line of observation 7-5a are seen by auxiliary intersection point and perpendicular to the axial line 8a, No. five subjectivity survey line 6-5a of countershaft 8 and No. five are secondary Survey line 7-5a is in same plane.Horizontal limb 3 is installed, in main horizontal axis 5 and bracket 4 between vertical pivot 9 and horizontal rotation platform 2 Main dial 11 is installed between corresponding site, secondary scale 12 is installed between 10 corresponding site of countershaft 8 and pedestal.Horizontal limb 3 is used In the angle of revolution of measurement horizontal rotation platform 2, main dial 11 is used to measure the axial line of No. five subjectivities survey line 6-5a and vertical pivot 9 Angle, that is, vertical angle α size between 9a, secondary scale 12 are used to measure the axial line of No. five pairs line of observation 7-5a and connecting rod 13 Angle, that is, pivot angle β size between 13a.
Above-mentioned horizontal rotation platform 2 and main horizontal axis 5 rotate to be manually, and the rotation of countershaft 8 is driven by motor, and motor is to watch Take motor or ultrasound electric machine.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, It is fixed with spherical contact 22 on the rod end of every support rod, is set on the top surface of main body 20 there are three PSD sensor 24, all PSD The photosurface of sensor is generally aligned in the same plane M, and the photosurface of each PSD sensor 24 is equipped with a specified point, and three specified The mutual alignment relation of point and three spherical 22 centre ofs sphere of contact is determining.In use, target is in artillery barrel bore, Spherical contact 22 on its three support rods 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, No. five main observation device 6-5 and No. five pair observation device 7-5 can synchronize water Flat revolution.The rotational energy of main horizontal axis 5 drives No. five main observation device 6-5 to make pitching, and No. five main observation device 6-5 pass through connecting rod 13 No. five pair observation device 7-5 are driven to make pitching, the rotation of countershaft 8 drives No. five pair observation device 7-5 rotations, No. five subjective surveys line 6-5a and No. five pair line of observation 7-5a is in same plane, and No. five pair line of observation 7-5a are rotated in above-mentioned plane, and No. five as a result, Subjective survey line 6-5a and No. five pair line of observation 7-5a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.When measurement, No. five main observation device 6-5 are opened, close No. five secondary observation device 7-5.Surveyor operates No. five subjective survey and fills 6-5 is set, according to first PSD sensor feedback signal, first PSD sensor specified point is manually aimed at, so that the specified point On No. five subjective survey line 6-5a, horizontal limb 3 provides the angle of revolution of horizontal rotation platform 2, and main dial 11 provides vertically The value of angle α.Later, No. five main observation device 6-5 are closed, No. five secondary observation device 7-5 are opened.No. five pair observation device 7-5 by Motor driven, under PSD sensor feedback signal control, automatic aiming PSD sensor specified point, so that the specified point In on No. five secondary line of observation 7-5a, at this point, No. five subjectivity survey line 6-5a and No. five pair line of observation 7-5a intersect at the specified point, pair Scale 12 provides the value of pivot angle β, completes point measurement.According to the distance h's of the value of pivot angle β, known main intersection point and auxiliary intersection point Value, the value of the specified point Yu main intersection point distance S is obtained finally by data processing section.In conjunction with returning for horizontal rotation platform 2 Gyration and vertical angle α can determine the coordinate of the relatively main intersection point of the specified point.And so on, determine second specified point, The coordinate position of three specified points can determine that the centre of sphere of three and the tangent spherical contact 22 of artillery barrel bore wall is sat at this time Mark.Cooperative target is moved to artillery barrel bore in addition several place positions, is repeated the above process.It can by data processing section Determine artillery barrel bore straightness.
Embodiment 6
See Figure 16 to Figure 18, embodiment 6 includes detection device and target.The detection device has pedestal 1, level Revolving platform 2, bracket 4 and vertical pivot 9, bracket 4 are fixed on horizontal rotation platform 2, and vertical pivot 9 is fixedly connected with pedestal 1, and level is returned Turn the axial line 9a that platform 2 is on pedestal 1 and around vertical pivot 9 to rotate, bracket 4 is equipped with horizontal and can surround Pivot Point Center The main horizontal axis 5 that line is rotated, the axial line 5a of main horizontal axis 5 intersect with the axial line 9a of vertical pivot 9, form main intersection point.In main cross No. six main observation device 6-6 are fixed on axis 5, No. six main observation device 6-6 are a laser, and optical axis is known as No. six subjective surveys Line 6-6a, No. six subjectivity survey line 6-6a are by main intersection point and perpendicular to the axial line 5a of main horizontal axis 5.In No. six main observation device 6- Connecting rod 13 is set on 6, and the axial line 13a of connecting rod 13 is by main intersection point and perpendicular to No. six subjective survey line 6-6a, on connecting rod 13 Equipped with pedestal 10, pedestal 10, which is equipped with, can surround the countershaft 8 that is rotated of self-axis line, the axial line 8a of countershaft 8 and No. six Subjective survey line 6-6a intersects vertically at spatial vertical, and with the axial line 13a of connecting rod 13, forms auxiliary intersection point.It is fixed on countershaft 8 Having No. six secondary observation device 7-6, No. six pair observation device 7-6 is a laser, and optical axis is known as No. six pair line of observation 7-6a, six Number pair line of observation 7-6a is observed by auxiliary intersection point and perpendicular to the axial line 8a, No. six subjectivity survey line 6-6a of countershaft 8 and No. six are secondary Line 7-6a is in same plane.Horizontal limb 3 is installed, in 4 phase of main horizontal axis 5 and bracket between vertical pivot 9 and horizontal rotation platform 2 Installation main dial 11 between position is answered, secondary scale 12 is installed between 10 corresponding site of countershaft 8 and pedestal.Horizontal limb 3 is used for The angle of revolution of horizontal rotation platform 2 is measured, main dial 11 is used to measure the axial line 9a of No. six subjectivities survey line 6-6a and vertical pivot 9 Between angle, that is, vertical angle α size, secondary scale 12 is used to measure the axial line 13a of No. six pairs line of observation 7-6a and connecting rod 13 Between angle, that is, pivot angle β size.
The rotation of above-mentioned horizontal rotation platform 2, main horizontal axis 5 and countershaft 8 is respectively driven by motor, and motor is servo motor or surpasses Acoustic-electric machine.
The target has main body 20, and the bottom surface of main body 20 is equipped with three support rods 21 being in triangular distribution, It is fixed with spherical contact 22 on the rod end of every support rod, is set on the top surface of main body 20 there are three PSD sensor 24, all PSD The photosurface of sensor is generally aligned in the same plane M, and the photosurface of each PSD sensor 24 is equipped with a specified point, and three specified The mutual alignment relation of point and three spherical 22 centre ofs sphere of contact is determining.In use, target is in artillery barrel bore, Spherical contact 22 on its three support rods 21 is against on artillery barrel bore wall.
Under the action of horizontal rotation platform 2, No. six main observation device 6-6 and No. six pair observation device 7-6 can synchronize water Flat revolution.The rotational energy of main horizontal axis 5 drives No. six main observation device 6-6 to make pitching, and No. six main observation device 6-6 pass through connecting rod 13 No. six pair observation device 7-6 are driven to make pitching, the rotation of countershaft 8 drives No. six pair observation device 7-6 rotations, No. six subjective surveys line 6-6a and No. six pair line of observation 7-6a is in same plane, and No. six pair line of observation 7-6a are rotated in above-mentioned plane, and No. six as a result, Subjective survey line 6-6a and No. six pair line of observation 7-6a can be intersected in measured point.
The present embodiment also has power unit, data processing section, communication interface and display screen, keyboard etc..
The application method and detection process of the present embodiment are as follows: cooperative target is placed in artillery barrel bore somewhere, three Spherical contact 22 on support rod 21 is against on artillery barrel bore wall into tangent shape.Detection device is placed in outside gun barrel 19 Portion.When measurement, No. six main observation device 6-6 are opened, close No. six secondary observation device 7-6.Horizontal rotation platform is driven by its motor Dynamic, main horizontal axis 5 is by its motor driven, and in the case where first PSD sensor feedback signal controls, No. six main observation device 6-6 are automatic First PSD sensor specified point is aimed at, so that the specified point is located on subjective survey line 6-6a.Horizontal limb 3 provides horizontal return Turn the angle of revolution of platform 2, main dial 11 provides the value of vertical angle α.Later, No. six main observation device 6-6 are closed, open No. six Secondary observation device 7-6.No. six pair observation device 7-6 are driven by motor, and under PSD sensor feedback signal control, take aim at automatically Quasi- PSD sensor specified point, so that the specified point is located on secondary line of observation 7-6a, at this point, No. six subjectivity survey line 6-6a and six Number pair line of observation 7-6a intersects at the specified point, and secondary scale 12 provides the value of pivot angle β, completes specified point measurement.According to pivot angle β Value, known main intersection point and auxiliary intersection point distance h value, obtain the specified point and main intersection point finally by data processing section The value of distance S.Angle of revolution and vertical angle α in conjunction with horizontal rotation platform 2 can determine the relatively main intersection point of the specified point Coordinate.And so on, it determines the coordinate position of second specified point, third specified point, can determine three and cannon at this time The sphere centre coordinate of the tangent spherical contact 22 of bore wall in barrel.Cooperative target is moved to artillery barrel bore in addition several place positions It sets, repeats the above process.It can determine artillery barrel bore straightness by data processing section.
It is related to in-built CCD digital camera telescope in above-described embodiment, it is seen that He Baoxi chief editor, the Yellow River water conservancy publishing house In August, 2005 publishes its " total station survey technology " chapter 2.See also plum text victory, Yang Hongzhu, publishing house of Wuhan University 2011 Publish its " robot measurement exploitation and application " the 2nd chapter November.

Claims (6)

1.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,竖轴(9)与基座(1)固定连接,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有一号主观测装置(6-1),一号主观测装置(6-1)为一望远镜,其视准轴称为一号主观测线(6-1a),一号主观测线(6-1a)通过主交点且垂直于主横轴(5)的轴心线(5a),在一号主观测装置(6-1)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于一号主观测线(6-1a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与一号主观测线(6-1a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有一号副观测装置(7-1),一号副观测装置(7-1)为一望远镜,其视准轴称为一号副观测线(7-1a),一号副观测线(7-1a)通过副交点且垂直于副轴(8)的轴心线(8a),一号主观测线(6-1a)和一号副观测线(7-1a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),主横轴(5)和支架(4)相应部位之间安装主度盘(11),副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)、主横轴(5)和副轴(8)的旋转均为手动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有平面镜(23),平面镜(23)上设有三个特定的标识点,三个标识点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,一号主观测线(6-1a)和一号副观测线(7-1a)交会于第一个标识点,确定第一个标识点相对主交点的坐标,以此类推,确定第二个标识点、第三个标识点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。1. An artillery barrel inner bore straightness detection device, characterized in that: it comprises a detection device and a working target; the detection device has a base (1), a horizontal revolving platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), the vertical axis (9) is fixedly connected with the base (1), and the horizontal rotary platform (2) is on the base (1) and surrounds the vertical axis (9). ) rotates on the axis (9a), the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, the axis (5a) of the main transverse axis (5) and The axis lines (9a) of the vertical axis (9) intersect to form the main intersection point, and a No. 1 main observation device (6-1) is fixed on the main horizontal axis (5), and the No. 1 main observation device (6-1) is a The telescope, its collimation axis is called the No. 1 main observation line (6-1a), and the No. 1 main observation line (6-1a) passes through the main intersection and is perpendicular to the axis (5a) of the main horizontal axis (5). A connecting rod (13) is set on the No. 1 main observation device (6-1). The axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 1 main observation line (6-1a). (13) is provided with a pedestal (10), the pedestal (10) is provided with a secondary shaft (8) that can rotate around its own axis, the axis (8a) of the secondary shaft (8) and the The main observation line (6-1a) is vertical in space, and intersects vertically with the axis line (13a) of the connecting rod (13) to form a secondary intersection point, and a secondary observation device (7-1) is fixed on the secondary axis (8). ), the No. 1 sub-observation device (7-1) is a telescope, its collimation axis is called the No. 1 sub-observation line (7-1a), and the No. 1 sub-observation line (7-1a) passes through the sub-intersection and is perpendicular to the sub-observation point. The axis line (8a) of the shaft (8), the No. 1 main observation line (6-1a) and the No. 1 sub-observation line (7-1a) are in the same plane; the vertical axis (9) and the horizontal rotating platform (2) The horizontal dial (3) is installed between the main horizontal axis (5) and the corresponding parts of the bracket (4), the main dial (11) is installed, and the auxiliary shaft (8) is installed between the corresponding parts of the axle frame (10). The dial (12); the rotation of the above-mentioned horizontal rotary platform (2), the main horizontal axis (5) and the secondary axis (8) are all manual; the work target has a main body (20), and the bottom surface of the main body (20) is provided with There are three supporting rods (21) distributed in a triangular shape, a spherical contact (22) is fixed on the rod end of each supporting rod, a plane mirror (23) is provided on the top surface of the main body (20), and a plane mirror (23) is provided on the top surface of the main body (20). There are three specific identification points, and the mutual positional relationship between the three identification points and the ball centers of the three spherical contacts (22) is determined; when in use, the working target is located in the inner bore of the gun barrel, and the three supporting rods (21) on the The ball contact (22) is pressed against the inner wall of the gun barrel. The No. 1 main observation line (6-1a) and the No. 1 sub-observation line (7-1a) intersect at the first marking point to determine the first marking point Relative to the coordinates of the main intersection, and so on, determine the coordinate positions of the second marking point and the third marking point, thus, the coordinate positions of the ball centers of the three spherical contacts (22) can be determined. Certainly. 2.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,竖轴(9)与基座(1)固定连接,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有二号主观测装置(6-2),二号主观测装置(6-2)为一望远镜,其视准轴称为二号主观测线(6-2a),二号主观测线(6-2a)通过主交点且垂直于主横轴(5)的轴心线(5a),在二号主观测装置(6-2)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于二号主观测线(6-2a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与二号主观测线(6-2a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有二号副观测装置(7-2),二号副观测装置(7-2)为一内置CCD数字相机的望远镜,其视准轴称为二号副观测线(7-2a),二号副观测线(7-2a)通过副交点且垂直于副轴(8)的轴心线(8a),二号主观测线(6-2a)和二号副观测线(7-2a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),主横轴(5)和支架(4)相应部位之间安装主度盘(11),副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)和主横轴(5)的旋转为手动,副轴(8)的旋转为电动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有平面镜(23),平面镜(23)上设有三个特定的标识点,三个标识点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,二号主观测线(6-2a)和二号副观测线(7-2a)交会于第一个标识点,确定第一个标识点相对主交点的坐标,以此类推,确定第二个标识点、第三个标识点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。2. An artillery barrel inner bore straightness detection device, characterized in that: it includes a detection device and a working target; the detection device has a base (1), a horizontal rotary platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), the vertical axis (9) is fixedly connected with the base (1), and the horizontal rotary platform (2) is on the base (1) and surrounds the vertical axis (9). ) rotates on the axis (9a), the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, the axis (5a) of the main transverse axis (5) and The axis lines (9a) of the vertical axis (9) intersect to form a main intersection point, and a No. 2 main observation device (6-2) is fixed on the main horizontal axis (5), and the No. 2 main observation device (6-2) is For a telescope, its collimation axis is called the No. 2 main observation line (6-2a), and the No. 2 main observation line (6-2a) passes through the main intersection and is perpendicular to the axis (5a) of the main horizontal axis (5), A connecting rod (13) is set on the No. 2 main observation device (6-2), and the axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 2 main observation line (6-2a). The rod (13) is provided with a pedestal (10), the pedestal (10) is provided with a secondary shaft (8) that can rotate around its own axis, and the axis (8a) of the secondary shaft (8) and the two The main observation line (6-2a) is vertical in space, and intersects vertically with the axis line (13a) of the connecting rod (13), forming a secondary intersection point, and the secondary observation device No. 2 (7) is fixed on the secondary axis (8). -2), the second sub-observation device (7-2) is a telescope with a built-in CCD digital camera, its collimation axis is called the second sub-observation line (7-2a), the second sub-observation line (7-2a) Passing through the secondary intersection and perpendicular to the axis line (8a) of the secondary axis (8), the No. 2 main observation line (6-2a) and the No. 2 secondary observation line (7-2a) are in the same plane; the vertical axis (9) and A horizontal dial (3) is installed between the horizontal rotary platform (2), the main dial (11), the auxiliary shaft (8) and the axle bracket (10) are installed between the main horizontal axis (5) and the corresponding parts of the bracket (4). ) The auxiliary dial (12) is installed between the corresponding parts; the rotation of the above-mentioned horizontal rotary platform (2) and the main horizontal axis (5) is manual, and the rotation of the auxiliary shaft (8) is electric; the work target has a main body (20). ), the bottom surface of the main body (20) is provided with three support rods (21) distributed in a triangular shape, the rod end of each support rod is fixed with a spherical contact (22), and the top surface of the main body (20) is provided with a plane mirror (23), there are three specific marking points on the plane mirror (23), and the mutual positional relationship between the three marking points and the ball centers of the three spherical contacts (22) is determined; when in use, the working target is located in the inner bore of the gun barrel. , the spherical contacts (22) on its three support rods (21) are against the inner bore wall of the gun barrel, and the No. 2 main observation line (6-2a) and the No. 2 auxiliary observation line (7-2a) meet at the Determine the coordinates of the first identification point relative to the main intersection point, and so on, determine the coordinate positions of the second identification point and the third identification point, thus, the three spherical touch points The coordinate position of the spherical center of the head (22) is determined. 3.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,竖轴(9)与基座(1)固定连接,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有三号主观测装置(6-3),三号主观测装置(6-3)为一内置CCD数字相机的望远镜,其视准轴称为三号主观测线(6-3a),三号主观测线(6-3a)通过主交点且垂直于主横轴(5)的轴心线(5a),在三号主观测装置(6-3)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于三号主观测线(6-3a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与三号主观测线(6-3a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有三号副观测装置(7-3),三号副观测装置(7-3)为一内置CCD数字相机的望远镜,其视准轴称为三号副观测线(7-3a),三号副观测线(7-3a)通过副交点且垂直于副轴(8)的轴心线(8a),三号主观测线(6-3a)和三号副观测线(7-3a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),主横轴(5)和支架(4)相应部位之间安装主度盘(11),副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)、主横轴(5)和副轴(8)的旋转均为电动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有平面镜(23),平面镜(23)上设有三个特定的标识点,三个标识点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,三号主观测线(6-3a)和三号副观测线(7-3a)交会于第一个标识点,确定第一个标识点相对主交点的坐标,以此类推,确定第二个标识点、第三个标识点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。3. An artillery barrel inner bore straightness detection device, characterized in that: it includes a detection device and a working target; the detection device has a base (1), a horizontal rotary platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), the vertical axis (9) is fixedly connected with the base (1), and the horizontal rotary platform (2) is on the base (1) and surrounds the vertical axis (9). ) rotates on the axis (9a), the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, the axis (5a) of the main transverse axis (5) and The axis lines (9a) of the vertical axis (9) intersect to form the main intersection point, and the No. 3 main observation device (6-3) is fixed on the main horizontal axis (5), and the No. 3 main observation device (6-3) is a For a telescope with a built-in CCD digital camera, its collimation axis is called the No. 3 main observation line (6-3a), and the No. 3 main observation line (6-3a) passes through the main intersection and is perpendicular to the axis of the main horizontal axis (5). (5a), a connecting rod (13) is set on the No. 3 main observation device (6-3), and the axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 3 main observation line (6-3a) ), a shaft frame (10) is arranged on the connecting rod (13), and the shaft frame (10) is provided with a secondary shaft (8) that can rotate around its own axis line, and the axis line of the secondary shaft (8) ( 8a) It is perpendicular to the No. 3 main observation line (6-3a), and intersects vertically with the axis line (13a) of the connecting rod (13), forming a secondary intersection, and the No. 3 secondary observation is fixed on the secondary axis (8). The device (7-3), the third sub-observation device (7-3) is a telescope with a built-in CCD digital camera, and its collimation axis is called the third sub-observation line (7-3a), the third sub-observation line (7-3a). -3a) The axis line (8a) passing through the secondary intersection and perpendicular to the secondary axis (8), the No. 3 main observation line (6-3a) and the No. 3 secondary observation line (7-3a) are in the same plane; the vertical axis ( 9) A horizontal dial (3) is installed between the horizontal rotary platform (2), the main dial (11), the auxiliary shaft (8) and the shaft are installed between the main horizontal axis (5) and the corresponding parts of the bracket (4). A secondary dial (12) is installed between the corresponding parts of the frame (10); the rotation of the above-mentioned horizontal rotary platform (2), the main horizontal axis (5) and the secondary axis (8) are all electric; the work target has a main body (20). ), the bottom surface of the main body (20) is provided with three support rods (21) distributed in a triangular shape, the rod end of each support rod is fixed with a spherical contact (22), and the top surface of the main body (20) is provided with a plane mirror (23), there are three specific marking points on the plane mirror (23), and the mutual positional relationship between the three marking points and the ball centers of the three spherical contacts (22) is determined; when in use, the working target is located in the inner bore of the gun barrel. , the spherical contacts (22) on its three support rods (21) abut on the inner bore wall of the gun barrel, and the No. 3 main observation line (6-3a) and the No. Determine the coordinates of the first identification point relative to the main intersection point, and so on, determine the coordinate positions of the second identification point and the third identification point, thus, The coordinate positions of the centers of the three spherical contacts (22) are determined. 4.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有四号主观测装置(6-4),四号主观测装置(6-4)为一激光器,其光轴称为四号主观测线(6-4a),四号主观测线(6-4a)通过主交点且垂直于主横轴(5)的轴心线(5a),在四号主观测装置(6-4)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于四号主观测线(6-4a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与四号主观测线(6-4a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有四号副观测装置(7-4),四号副观测装置(7-4)为一激光器,其光轴称为四号副观测线(7-4a),四号副观测线(7-4a)通过副交点且垂直于副轴(8)的轴心线(8a),四号主观测线(6-4a)和四号副观测线(7-4a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),横轴(5)和支架(4)相应部位之间安装主度盘(11),在副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)、主横轴(5)和副轴(8)的旋转均为手动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有三个PSD传感器(24),所有PSD传感器的光敏面位于同一平面(M),每个PSD传感器(24)的光敏面上设有一个指定点,三个指定点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,四号主观测线(6-4a)和四号副观测线(7-4a)交会于第一个指定点,确定第一个指定点相对主交点的坐标,以此类推,确定第二个指定点、第三个指定点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。4. An artillery barrel inner bore straightness detection device, characterized in that: it includes a detection device and a working target; the detection device has a base (1), a horizontal rotary platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), and the horizontal rotary platform (2) is located on the base (1) and rotates around the axis (9a) of the vertical shaft (9). ) and the horizontal rotary platform (2), a horizontal dial (3) is installed, and the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, and the main transverse axis (5). ) of the axis line (5a) intersects with the axis line (9a) of the vertical axis (9) to form the main intersection point, on the main horizontal axis (5) is fixed a No. 4 main observation device (6-4), No. 4 The main observation device (6-4) is a laser, and its optical axis is called the No. 4 main observation line (6-4a), and the No. 4 main observation line (6-4a) passes through the main intersection and is perpendicular to the main horizontal axis (5) The axis line (5a) of the connecting rod (13) is set on the No. 4 main observation device (6-4), and the axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 4 main observation line (6-4a), the connecting rod (13) is provided with a pedestal (10), the pedestal (10) is provided with a secondary shaft (8) that can rotate around its own axis, and the The axis line (8a) is perpendicular to the main observation line No. 4 (6-4a), and intersects perpendicularly with the axis line (13a) of the connecting rod (13), forming a secondary intersection, which is fixed on the secondary axis (8) There is No. 4 sub-observation device (7-4), the fourth sub-observation device (7-4) is a laser, and its optical axis is called the fourth sub-observation line (7-4a), the fourth sub-observation line (7- 4a) The axis line (8a) passing through the secondary intersection and perpendicular to the secondary axis (8), the No. 4 main observation line (6-4a) and the No. 4 secondary observation line (7-4a) are in the same plane; the vertical axis (9 ) and the horizontal rotary platform (2) is installed with a horizontal dial (3), a main dial (11) is installed between the horizontal axis (5) and the corresponding parts of the bracket (4), and the auxiliary shaft (8) and the axle bracket are installed (10) A secondary dial (12) is installed between the corresponding parts; the rotation of the above-mentioned horizontal rotary platform (2), the main horizontal axis (5) and the secondary axis (8) are all manual; the work target has a main body (20) , the bottom surface of the main body (20) is provided with three supporting rods (21) distributed in a triangular shape, the rod end of each supporting rod is fixed with a spherical contact (22), and the top surface of the main body (20) is provided with three PSDs Sensors (24), the photosensitive surfaces of all PSD sensors are located on the same plane (M), each PSD sensor (24) is provided with a designated point on the photosensitive surface, three designated points and three spherical contacts (22) spherical centers The mutual positional relationship is determined; when in use, the working target is located in the inner bore of the gun barrel, the spherical contacts (22) on the three support rods (21) are against the inner bore wall of the gun barrel, and the No. 4 main observation line (6 -4a) and No. 4 sub-observation line (7-4a) intersect at the first designated point, determine the coordinates of the first designated point relative to the main intersection, and so on, determine The coordinate positions of the second designated point and the third designated point are determined, thereby, the coordinate positions of the spherical centers of the three spherical contacts (22) are determined. 5.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,竖轴(9)与基座(1)固定连接,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有五号主观测装置(6-5),五号主观测装置(6-5)为一激光器,其光轴称为五号主观测线(6-5a),五号主观测线(6-5a)通过主交点且垂直于主横轴(5)的轴心线(5a),在五号主观测装置(6-5)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于五号主观测线(6-5a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与五号主观测线(6-5a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有五号副观测装置(7-5),五号副观测装置(7-5)为一激光器,其光轴称为五号副观测线(7-5a),五号副观测线(7-5a)通过副交点且垂直于副轴(8)的轴心线(8a),五号主观测线(6-5a)和五号副观测线(7-5a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),主横轴(5)和支架(4)相应部位之间安装主度盘(11),副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)和主横轴(5)的旋转为手动,副轴(8)的旋转为电动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有三个PSD传感器(24),所有PSD传感器的光敏面位于同一平面(M),每个PSD传感器(24)的光敏面上设有一个指定点,三个指定点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,五号主观测线(6-5a)和五号副观测线(7-5a)交会于第一个指定点,确定第一个指定点相对主交点的坐标,以此类推,确定第二个指定点、第三个指定点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。5. An artillery barrel inner bore straightness detection device, characterized in that: it comprises a detection device and a working target; the detection device has a base (1), a horizontal rotary platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), the vertical axis (9) is fixedly connected with the base (1), and the horizontal rotary platform (2) is on the base (1) and surrounds the vertical axis (9). ) rotates on the axis (9a), the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, the axis (5a) of the main transverse axis (5) and The axis lines (9a) of the vertical axis (9) intersect to form the main intersection point, and the No. 5 main observation device (6-5) is fixed on the main horizontal axis (5), and the No. 5 main observation device (6-5) is A laser, the optical axis of which is called the No. 5 main observation line (6-5a), the No. 5 main observation line (6-5a) passes through the main intersection and is perpendicular to the axis (5a) of the main horizontal axis (5), at A connecting rod (13) is arranged on the No. 5 main observation device (6-5), and the axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 5 main observation line (6-5a). (13) is provided with a pedestal (10), the pedestal (10) is provided with a secondary shaft (8) that can rotate around its own axis, and the axis (8a) of the secondary shaft (8) and the fifth The main observation line (6-5a) is vertical in space, and intersects vertically with the axis line (13a) of the connecting rod (13) to form a secondary intersection point, on the secondary axis (8) is fixed with the No. 5 secondary observation device (7- 5) The No. 5 sub-observation device (7-5) is a laser, and its optical axis is called the No. 5 sub-observation line (7-5a). The No. 5 sub-observation line (7-5a) passes through the sub-intersection and is perpendicular to the sub-observation point. The axis line (8a) of the shaft (8), the No. 5 main observation line (6-5a) and the No. 5 sub-observation line (7-5a) are in the same plane; the vertical axis (9) and the horizontal rotating platform (2) are in the same plane. The horizontal dial (3) is installed between the main horizontal axis (5) and the corresponding parts of the bracket (4), the main dial (11) is installed, and the auxiliary shaft (8) is installed between the corresponding parts of the axle frame (10). The dial (12); the rotation of the above-mentioned horizontal rotary platform (2) and the main horizontal axis (5) is manual, and the rotation of the auxiliary shaft (8) is electric; the work target has a main body (20), the main body (20) Three support rods (21) distributed in a triangle are arranged on the bottom surface, a spherical contact (22) is fixed on the rod end of each support rod, and three PSD sensors (24) are arranged on the top surface of the main body (20). The photosensitive surfaces of the PSD sensors are located on the same plane (M). The photosensitive surface of each PSD sensor (24) is provided with a designated point. The mutual positional relationship between the three designated points and the spherical centers of the three spherical contacts (22) is determined. When in use, the working target is located in the inner bore of the gun barrel, the spherical contacts (22) on the three support rods (21) are against the inner bore wall of the gun barrel, the No. 5 main observation line (6-5a) and the No. 5 The secondary observation line (7-5a) intersects at the first specified point, and the coordinates of the first specified point relative to the main intersection point are determined, and so on, the second specified point is determined , the coordinate position of the third specified point, and thus, the coordinate position of the spherical center of the three spherical contacts (22) is determined. 6.一种火炮身管内膛直线度检测设备,其特征在于:包括检测装置和工作目标;所述检测装置具有基座(1)、水平回转平台(2)、支架(4)和竖轴(9),支架(4)固定在水平回转平台(2)上,竖轴(9)与基座(1)固定连接,水平回转平台(2)处于基座(1)上且围绕竖轴(9)的轴心线(9a)旋转,支架(4)上设有水平的且能围绕自身轴心线进行旋转的主横轴(5),主横轴(5)的轴心线(5a)与竖轴(9)的轴心线(9a)相交,形成主交点,在主横轴(5)上固定有六号主观测装置(6-6),六号主观测装置(6-6)为一激光器,其光轴称为六号主观测线(6-6a),六号主观测线(6-6a)通过主交点且垂直于主横轴(5)的轴心线(5a),在六号主观测装置(6-6)上设置连杆(13),连杆(13)的轴心线(13a)经过主交点且垂直于六号主观测线(6-6a),在连杆(13)上设有轴架(10),轴架(10)上设有能围绕自身轴心线进行旋转的副轴(8),副轴(8)的轴心线(8a)与六号主观测线(6-6a)成空间垂直,且与连杆(13)的轴心线(13a)垂直相交,形成副交点,在副轴(8)上固定有六号副观测装置(7-6),六号副观测装置(7-6)为一激光器,其光轴称为六号副观测线(7-6a),六号副观测线(7-6a)通过副交点且垂直于副轴(8)的轴心线(8a),六号主观测线(6-6a)和六号副观测线(7-6a)处于同一平面;竖轴(9)与水平回转平台(2)之间安装有水平度盘(3),主横轴(5)和支架(4)相应部位之间安装主度盘(11),副轴(8)和轴架(10)相应部位之间安装副度盘(12);上述水平回转平台(2)、主横轴(5)和副轴(8)的旋转均为电动;所述工作目标具有主体(20),主体(20)的底面上设有成三角形分布的三根支撑杆(21),每根支撑杆的杆端上固定有球状触头(22),主体(20)的顶面上设有三个PSD传感器(24),所有PSD传感器的光敏面位于同一平面(M),每个PSD传感器(24)的光敏面上设有一个指定点,三个指定点与三个球状触头(22)球心的相互位置关系是确定的;使用时,工作目标处于火炮身管内膛,其三根支撑杆(21)上的球状触头(22)抵在火炮身管内膛壁上,六号主观测线(6-5a)和六号副观测线(7-5a)交会于第一个指定点,确定第一个指定点相对主交点的坐标,以此类推,确定第二个指定点、第三个指定点的坐标位置,由此,三个球状触头(22)球心的坐标位置得以确定。6. An artillery barrel inner bore straightness detection device, characterized in that: it includes a detection device and a work target; the detection device has a base (1), a horizontal rotary platform (2), a bracket (4) and a vertical axis ( 9), the bracket (4) is fixed on the horizontal rotary platform (2), the vertical axis (9) is fixedly connected with the base (1), and the horizontal rotary platform (2) is on the base (1) and surrounds the vertical axis (9). ) rotates on the axis (9a), the bracket (4) is provided with a horizontal main transverse axis (5) that can rotate around its own axis, the axis (5a) of the main transverse axis (5) and The axis lines (9a) of the vertical axis (9) intersect to form the main intersection point, and the No. 6 main observation device (6-6) is fixed on the main horizontal axis (5), and the No. 6 main observation device (6-6) is A laser, the optical axis of which is called the No. 6 main observation line (6-6a), the No. 6 main observation line (6-6a) passes through the main intersection and is perpendicular to the axis (5a) of the main horizontal axis (5), at A connecting rod (13) is arranged on the No. 6 main observation device (6-6). The axis line (13a) of the connecting rod (13) passes through the main intersection and is perpendicular to the No. 6 main observation line (6-6a). (13) is provided with a pedestal (10), the pedestal (10) is provided with a secondary shaft (8) that can rotate around its own axis, the axis (8a) of the secondary shaft (8) and the sixth The main observation line (6-6a) is vertical in space, and perpendicularly intersects with the axis line (13a) of the connecting rod (13), forming a secondary intersection point, on the secondary axis (8) is fixed with the No. 6 secondary observation device (7- 6) The sixth sub-observation device (7-6) is a laser, and its optical axis is called the sixth sub-observation line (7-6a). The sixth sub-observation line (7-6a) passes through the sub-intersection and is perpendicular to the sub-observation point. The axis (8a) of the axis (8), the No. 6 main observation line (6-6a) and the No. 6 sub-observation line (7-6a) are in the same plane; the vertical axis (9) and the horizontal rotating platform (2) are in the same plane. The horizontal dial (3) is installed between the main horizontal axis (5) and the corresponding parts of the bracket (4), the main dial (11) is installed, and the auxiliary shaft (8) is installed between the corresponding parts of the axle frame (10). The dial (12); the rotation of the above-mentioned horizontal rotary platform (2), the main horizontal axis (5) and the auxiliary axis (8) are all electric; the work target has a main body (20), and the bottom surface of the main body (20) is provided with There are three support rods (21) distributed in a triangular shape, a spherical contact (22) is fixed on the rod end of each support rod, and three PSD sensors (24) are arranged on the top surface of the main body (20). The photosensitive surfaces are located on the same plane (M), a designated point is set on the photosensitive surface of each PSD sensor (24), and the mutual positional relationship between the three designated points and the centers of the three spherical contacts (22) is determined; using When the working target is located in the inner bore of the gun barrel, the spherical contacts (22) on the three support rods (21) are against the inner bore wall of the gun barrel, the No. 6 main observation line (6-5a) and the No. 6 auxiliary observation line (7-5a) Intersection at the first designated point, determine the coordinates of the first designated point relative to the main intersection, and so on, determine the second designated point, the third designated point The coordinate position of the fixed point, thus, the coordinate position of the spherical center of the three spherical contacts (22) is determined.
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