CN110645955A - An adaptive multi-distance angle fast positioning device and positioning method - Google Patents

An adaptive multi-distance angle fast positioning device and positioning method Download PDF

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CN110645955A
CN110645955A CN201911042632.3A CN201911042632A CN110645955A CN 110645955 A CN110645955 A CN 110645955A CN 201911042632 A CN201911042632 A CN 201911042632A CN 110645955 A CN110645955 A CN 110645955A
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display screen
positioning
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infrared laser
bracket
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黄双军
颜丽娟
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    • G01CMEASURING DISTANCES, LEVELS OR BEARINGS; SURVEYING; NAVIGATION; GYROSCOPIC INSTRUMENTS; PHOTOGRAMMETRY OR VIDEOGRAMMETRY
    • G01C1/00Measuring angles

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Abstract

本发明公开了一种适应型多距离角度快速定位装置及定位方法,包括罗盘本体、影像显示屏、红外线摄像头和红外激光发射器,所述罗盘本体固定安装于底板的顶部中心处,且底板的底部设置有轴承底座,所述底板的顶部边缘处安装有影像显示屏,且影像显示屏的边侧和底板之间设置有定位夹,所述底板的底部边缘处安装有第一支架和第二支架,且第一支架和第二支架上分别转轴连接有红外激光发射器和转杆,所述转杆和第二支架的连接处安装有阻尼环。该适应型多距离角度快速定位装置,进行机械激光对准,方便定位角度测量工作的进行,减少人工辅助,耗时短,不会因路面问题影响测量的精确,在强光条件下仍然能够良好的进行角度测量工作。

Figure 201911042632

The invention discloses an adaptive multi-distance angle fast positioning device and a positioning method, comprising a compass body, an image display screen, an infrared camera and an infrared laser transmitter. The compass body is fixedly installed at the top center of a base plate, and the A bearing base is arranged at the bottom, an image display screen is installed at the top edge of the base plate, and a positioning clip is arranged between the side of the image display screen and the base plate, and a first bracket and a second bracket are installed at the bottom edge of the base plate A bracket, and the first bracket and the second bracket are respectively connected with an infrared laser transmitter and a rotating rod, and a damping ring is installed at the connection between the rotating rod and the second bracket. The adaptive multi-distance angle fast positioning device performs mechanical laser alignment, which is convenient for positioning angle measurement work, reduces manual assistance, takes less time, does not affect the accuracy of measurement due to road problems, and can still perform well under strong light conditions. for angle measurement.

Figure 201911042632

Description

一种适应型多距离角度快速定位装置及定位方法An adaptive multi-distance angle fast positioning device and positioning method

技术领域technical field

本发明涉及方位角度测量技术领域,具体为一种适应型多距离角度快速定位装置及定位方法。The invention relates to the technical field of azimuth angle measurement, in particular to an adaptive multi-distance angle rapid positioning device and a positioning method.

背景技术Background technique

在工程施工过程中,为了避免施工时因角度误差对工程施工产生精确性的影响,在施工前需要对方位角度进行精确测量,从而使得工程施工的定位更加精确,最终工程的成型质量和效果更加稳定,防止工程施工出现严重的位置偏移问题。In the process of engineering construction, in order to avoid the influence of angle error on the accuracy of engineering construction during construction, it is necessary to accurately measure the azimuth angle before construction, so that the positioning of the engineering construction is more accurate, and the final molding quality and effect of the project are better. It is stable and prevents serious position deviation problems in engineering construction.

然而现有的工程角度定位测量技术在使用时存在以下问题:However, the existing engineering angle positioning measurement technology has the following problems in use:

1、采用人工瞄准和人工拉线,容易因路面的坑洼造成走动的不动,使得方位角度测量精确度不高,同时需要多个人员同时参与,耗时长,在复杂地方也无法使用拉线方法定位,定位的精准度完全由拉线人员的经验决定,消耗时间与人工,同时无法测量中远距离的目标角度定位;1. The use of manual aiming and manual pulling is easy to move around due to the potholes on the road, which makes the measurement accuracy of the azimuth angle not high. At the same time, multiple personnel are required to participate at the same time, which is time-consuming and cannot be positioned by the pulling method in complex places. , the accuracy of positioning is completely determined by the experience of the wire pulling personnel, which consumes time and labor, and cannot measure the target angle positioning at medium and long distances;

2、采用激光红外线进行角度测量,虽然精准度高,便于操作,但是于强光下、太阳底下及高亮度环境下无法使用,同时也无法测量中远距离的目标角度定位。2. Using laser infrared for angle measurement, although it has high accuracy and is easy to operate, it cannot be used under strong light, under the sun and in high-brightness environments, and it cannot measure the target angle positioning at medium and long distances.

针对上述问题,急需在原有工程角度定位测量技术的基础上进行创新设计。In view of the above problems, it is urgent to carry out innovative design based on the original engineering angle positioning measurement technology.

发明内容SUMMARY OF THE INVENTION

本发明的目的在于提供一种适应型多距离角度快速定位装置,以解决上述背景技术提出现有的工程角度定位测量技术容易因路面的坑洼造成走动的不动,使得方位角度测量精确度不高,同时需要多个人员同时参与,耗时长,在复杂地方也无法使用拉线方法定位,定位的精准度完全由拉线人员的经验决定,消耗时间与人工,同时无法测量中远距离的目标角度定位,在强光下、太阳底下及高亮度环境下测量不便的问题。The object of the present invention is to provide an adaptive multi-distance angle fast positioning device, in order to solve the above-mentioned background technology, it is proposed that the existing engineering angle positioning measurement technology is easy to move around due to the potholes in the road surface, so that the azimuth angle measurement accuracy is not accurate. It requires multiple personnel to participate at the same time, which is time-consuming and cannot be used for positioning in complex places. The accuracy of positioning is completely determined by the experience of the cable-pulling personnel, which consumes time and labor. At the same time, it is impossible to measure the target angle positioning at medium and long distances. It is inconvenient to measure under strong light, under the sun and in high-brightness environment.

为实现上述目的,本发明提供如下技术方案:一种适应型多距离角度快速定位装置,包括罗盘本体、影像显示屏、红外线摄像头和红外激光发射器,所述罗盘本体固定安装于底板的顶部中心处,且底板的底部设置有轴承底座,并且轴承底座的底部安装有伸缩支架,所述底板的顶部边缘处安装有影像显示屏,且影像显示屏的边侧和底板之间设置有定位夹,并且定位夹上安装有定位螺栓,而且影像显示屏和罗盘本体之间的底板上设置有对准线,同时影像显示屏的底部固定有红外线摄像头,所述底板的底部边缘处安装有第一支架和第二支架,且第一支架和第二支架上分别转轴连接有红外激光发射器和转杆,并且底板位于影像显示屏底部的边侧预留有贯通孔,而且红外激光发射器和红外线摄像头之间连接有连杆,所述转杆和第二支架的连接处安装有阻尼环,且转杆的中部固定有齿轮轴。In order to achieve the above purpose, the present invention provides the following technical solutions: an adaptive multi-distance angle fast positioning device, including a compass body, an image display screen, an infrared camera and an infrared laser transmitter, and the compass body is fixedly installed on the top center of the bottom plate. The bottom of the bottom plate is provided with a bearing base, and the bottom of the bearing base is equipped with a telescopic bracket, an image display screen is installed on the top edge of the bottom plate, and a positioning clip is provided between the side of the image display screen and the bottom plate, And positioning bolts are installed on the positioning clip, and an alignment line is set on the bottom plate between the image display screen and the compass body, and an infrared camera is fixed at the bottom of the image display screen, and a first bracket is installed at the bottom edge of the bottom plate. and the second bracket, and the first bracket and the second bracket are respectively connected with an infrared laser transmitter and a rotating rod, and the side of the bottom plate at the bottom of the image display screen is reserved with a through hole, and the infrared laser transmitter and the infrared camera are A connecting rod is connected therebetween, a damping ring is installed at the connection between the rotating rod and the second bracket, and a gear shaft is fixed in the middle of the rotating rod.

优选的,所述罗盘本体、底板和伸缩支架之间竖向同轴设置,且底板和伸缩支架构成相对旋转结构。Preferably, the compass body, the bottom plate and the telescopic support are arranged vertically and coaxially, and the bottom plate and the telescopic support constitute a relative rotation structure.

优选的,所述影像显示屏通过定位夹与底板之间设置为拆卸安装结构,且影像显示屏与红外线摄像头、红外激光发射器和罗盘本体的竖向中心轴线共面。Preferably, the image display screen is set as a detachable installation structure between the positioning clip and the bottom plate, and the image display screen is coplanar with the vertical central axis of the infrared camera, the infrared laser transmitter and the compass body.

优选的,所述红外线摄像头和红外激光发射器之间相互平行设置,且红外线摄像头和红外激光发射器均设置为转轴连接的旋转结构,并且红外线摄像头和红外激光发射器之间的转轴连接线与连杆相互平行设置。Preferably, the infrared camera and the infrared laser emitter are arranged parallel to each other, and the infrared camera and the infrared laser emitter are both arranged as a rotating structure connected by a rotating shaft, and the rotating shaft connecting line between the infrared camera and the infrared laser emitter is connected with the rotating shaft. The connecting rods are arranged parallel to each other.

优选的,所述红外激光发射器的端部设置为环形锯齿状结构,且红外激光发射器的环形锯齿状结构和齿轮轴之间相互啮合连接。Preferably, the end of the infrared laser emitter is configured as an annular sawtooth structure, and the annular sawtooth structure of the infrared laser emitter and the gear shaft are meshed and connected to each other.

优选的,所述转杆的长度大于底板的宽度,且转杆与第二支架之间转动连接。Preferably, the length of the rotating rod is greater than the width of the bottom plate, and the rotating rod and the second bracket are rotatably connected.

与现有技术相比,本发明的有益效果是:该适应型多距离角度快速定位装置,进行机械激光对准,方便定位角度测量工作的进行,减少人工辅助,耗时短,不会因路面问题影响测量的精确,在强光条件下仍然能够良好的进行角度测量工作;Compared with the prior art, the beneficial effects of the present invention are as follows: the adaptive multi-distance angle fast positioning device performs mechanical laser alignment, facilitates the positioning angle measurement work, reduces manual assistance, takes less time, and does not depend on the road surface. The problem affects the accuracy of the measurement, and the angle measurement can still be performed well under strong light conditions;

1、只需要通过红外线摄像头和红外激光发射器的同步工作使用,利用红外激光对准,在坑洼的路面仍然能够进行良好而稳定的定位角度测量对准,在罗盘本体的共同作用下,方便角度测量工作的进行,同时能够有效提高角度定位测量精准度;1. It only needs to be used synchronously by the infrared camera and the infrared laser transmitter. By using the infrared laser alignment, a good and stable positioning angle measurement and alignment can still be performed on the road with potholes. Under the joint action of the compass body, it is convenient The angle measurement work is carried out, and at the same time, the accuracy of angle positioning measurement can be effectively improved;

2、同步转动的红外线摄像头和红外激光发射器,在转杆的旋转时,方便两者的设置朝向角度调整,使得装置在使用时能够进行远近距离点的良好定位角度测量,使用便捷,方便快速。2. The synchronously rotating infrared camera and infrared laser transmitter facilitate the adjustment of the orientation angle of the two when the rotating rod is rotated, so that the device can perform good positioning angle measurement of far and short points during use, which is convenient and fast to use. .

附图说明Description of drawings

图1为本发明正面结构示意图;Fig. 1 is the front structure schematic diagram of the present invention;

图2为本发明影像显示屏和红外线摄像头安装结构示意图;2 is a schematic diagram of the installation structure of an image display screen and an infrared camera of the present invention;

图3为本发明俯视结构示意图;Fig. 3 is the top view structure schematic diagram of the present invention;

图4为本发明转杆安装结构示意图。FIG. 4 is a schematic diagram of the installation structure of the rotating rod of the present invention.

图中:1、罗盘本体;2、底板;3、轴承底座;4、伸缩支架;5、影像显示屏;6、定位夹;7、定位螺栓;8、对准线;9、红外线摄像头;10、第一支架;11、第二支架;12、红外激光发射器;13、转杆;14、贯通孔;15、连杆;16、阻尼环;17、齿轮轴。In the figure: 1. Compass body; 2. Bottom plate; 3. Bearing base; 4. Telescopic bracket; 5. Video display screen; 6. Positioning clip; 7. Positioning bolt; 8. Alignment line; 9. Infrared camera; 10 11, the second bracket; 12, the infrared laser transmitter; 13, the rotating rod; 14, the through hole; 15, the connecting rod; 16, the damping ring; 17, the gear shaft.

具体实施方式Detailed ways

下面将结合本发明实施例中的附图,对本发明实施例中的技术方案进行清楚、完整地描述,显然,所描述的实施例仅仅是本发明一部分实施例,而不是全部的实施例。基于本发明中的实施例,本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例,都属于本发明保护的范围。The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, but not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

请参阅图1-4,本发明提供一种技术方案:一种适应型多距离角度快速定位装置,包括罗盘本体1、底板2、轴承底座3、伸缩支架4、影像显示屏5、定位夹6、定位螺栓7、对准线8、红外线摄像头9、第一支架10、第二支架11、红外激光发射器12、转杆13、贯通孔14、连杆15、阻尼环16和齿轮轴17,罗盘本体1固定安装于底板2的顶部中心处,且底板2的底部设置有轴承底座3,并且轴承底座3的底部安装有伸缩支架4,底板2的顶部边缘处安装有影像显示屏5,且影像显示屏5的边侧和底板2之间设置有定位夹6,并且定位夹6上安装有定位螺栓7,而且影像显示屏5和罗盘本体1之间的底板2上设置有对准线8,同时影像显示屏5的底部固定有红外线摄像头9,底板2的底部边缘处安装有第一支架10和第二支架11,且第一支架10和第二支架11上分别转轴连接有红外激光发射器12和转杆13,并且底板2位于影像显示屏5底部的边侧预留有贯通孔14,而且红外激光发射器12和红外线摄像头9之间连接有连杆15,转杆13和第二支架11的连接处安装有阻尼环16,且转杆13的中部固定有齿轮轴17。1-4, the present invention provides a technical solution: an adaptive multi-distance angle quick positioning device, comprising a compass body 1, a bottom plate 2, a bearing base 3, a telescopic bracket 4, an image display screen 5, and a positioning clip 6 , positioning bolt 7, alignment line 8, infrared camera 9, first bracket 10, second bracket 11, infrared laser transmitter 12, rotating rod 13, through hole 14, connecting rod 15, damping ring 16 and gear shaft 17, The compass body 1 is fixedly installed at the top center of the base plate 2, and the bottom of the base plate 2 is provided with a bearing base 3, and the bottom of the bearing base 3 is installed with a telescopic bracket 4, and the top edge of the base plate 2 is installed with an image display screen 5, and A positioning clip 6 is arranged between the side of the image display screen 5 and the bottom plate 2, and a positioning bolt 7 is installed on the positioning clip 6, and an alignment line 8 is set on the bottom plate 2 between the image display screen 5 and the compass body 1 At the same time, an infrared camera 9 is fixed at the bottom of the image display screen 5, a first bracket 10 and a second bracket 11 are installed at the bottom edge of the base plate 2, and the first bracket 10 and the second bracket 11 are respectively connected with infrared laser emission shafts. The side of the bottom plate 2 at the bottom of the image display screen 5 is reserved with a through hole 14, and a connecting rod 15 is connected between the infrared laser transmitter 12 and the infrared camera 9. The rotating rod 13 and the second A damping ring 16 is installed at the connection of the bracket 11 , and a gear shaft 17 is fixed in the middle of the rotating rod 13 .

罗盘本体1、底板2和伸缩支架4之间竖向同轴设置,且底板2和伸缩支架4构成相对旋转结构,便于罗盘本体1和底板2的位置旋转调整,使得装置的角度定位测量更加的方便与快捷。The compass body 1, the bottom plate 2 and the telescopic bracket 4 are arranged vertically and coaxially, and the bottom plate 2 and the telescopic bracket 4 form a relative rotation structure, which is convenient for the position rotation adjustment of the compass body 1 and the bottom plate 2, and makes the angle positioning measurement of the device more accurate. Convenient and fast.

影像显示屏5通过定位夹6与底板2之间设置为拆卸安装结构,且影像显示屏5与红外线摄像头9、红外激光发射器12和罗盘本体1的竖向中心轴线共面,方便影像显示屏5的整体拆装维修,同时提高装置的角度定位测量的精确性。The image display screen 5 is set as a disassembly and installation structure between the positioning clip 6 and the bottom plate 2, and the image display screen 5 is coplanar with the vertical center axis of the infrared camera 9, the infrared laser transmitter 12 and the compass body 1, which is convenient for the image display screen. 5. The overall disassembly and maintenance of the device can improve the accuracy of the angle positioning measurement of the device.

红外线摄像头9和红外激光发射器12之间相互平行设置,且红外线摄像头9和红外激光发射器12均设置为转轴连接的旋转结构,并且红外线摄像头9和红外激光发射器12之间的转轴连接线与连杆15相互平行设置,红外激光发射器12的端部设置为环形锯齿状结构,且红外激光发射器12的环形锯齿状结构和齿轮轴17之间相互啮合连接,便于红外线摄像头9和红外激光发射器12的旋转,进行红外线摄像头9和红外激光发射器12角度朝向调节,方便进行不同远近距离的测量点定位,使得角度定位测量更加的方便与精确,提高角度测量定位的效果,方便使用。The infrared camera 9 and the infrared laser emitter 12 are arranged parallel to each other, and the infrared camera 9 and the infrared laser emitter 12 are both arranged as a rotating structure connected by a rotating shaft, and the rotating shaft connecting line between the infrared camera 9 and the infrared laser emitter 12 It is arranged parallel to the connecting rod 15, the end of the infrared laser emitter 12 is arranged in an annular sawtooth structure, and the annular sawtooth structure of the infrared laser emitter 12 and the gear shaft 17 are meshed and connected with each other, which is convenient for the infrared camera 9 and the infrared The rotation of the laser transmitter 12 adjusts the angle of the infrared camera 9 and the infrared laser transmitter 12, which facilitates the positioning of measuring points at different distances, makes the angle positioning measurement more convenient and accurate, improves the effect of angle measurement and positioning, and is convenient to use. .

转杆13的长度大于底板2的宽度,且转杆13与第二支架11之间转动连接,方便转杆13的旋转运动调节调控,在转杆13的作用下进行红外线摄像头9和红外激光发射器12的角度同步调节,操作方便快捷。The length of the rotating rod 13 is greater than the width of the bottom plate 2, and the rotating rod 13 is connected with the second bracket 11 in rotation, which is convenient for the adjustment and regulation of the rotating movement of the rotating rod 13, and the infrared camera 9 and the infrared laser emission are carried out under the action of the rotating rod 13. The angle of the actuator 12 is synchronously adjusted, and the operation is convenient and quick.

定位方法:在使用该适应型多距离角度快速定位装置时,首先根据图1和图3所示,在进行装置的使用时,通过定位夹6和定位螺栓7将影像显示屏5固定安装于底板2的边缘处,利用对准线8达到影像显示屏5的使用定位目的,方便影像显示屏5的安装定位,且在定位后位置稳定,使得角度定位测量更加精确,如图1所示,利用伸缩支架4的伸缩运动,方便将装置的整体高度进行改变,达到调整装置的使用高度目的,从而方便不同远近的点定位角度测量;Positioning method: When using the adaptive multi-distance angle quick positioning device, firstly according to Figure 1 and Figure 3, when using the device, fix and install the image display screen 5 on the bottom plate through the positioning clip 6 and the positioning bolt 7 At the edge of 2, the alignment line 8 is used to achieve the positioning purpose of the image display screen 5, which is convenient for the installation and positioning of the image display screen 5, and the position is stable after positioning, making the angle positioning measurement more accurate, as shown in Figure 1, using The telescopic movement of the telescopic bracket 4 is convenient to change the overall height of the device, so as to achieve the purpose of adjusting the use height of the device, thereby facilitating the measurement of point positioning angles at different distances;

根据图1-4所示,通过轴承底座3进行罗盘本体1和底板2的旋转,使得罗盘本体1本体及其上安装的电气元件位置发生移动改变,在旋转时同步开启红外激光发射器12和红外线摄像头9及影像显示屏5,利用红外激光射线进行角度测量定点,在红外线摄像头9及影像显示屏5的作用下,于强光内也能够进行红外激光射线在影像显示屏5上良好观察,将红外激光射线与罗盘本体1的指针倾斜角度对比,能够快速有效而精确的进行角度测量工作,同时由于红外激光发射器12和红外线摄像头9及影像显示屏5均采用市场上的常用电器元件设备使用,本技术方案中对比内部电气元件没有进行结构和功能性改变,所以没有对其型号和种类进行限定,如图4和图1所示,在手动转杆13时,转杆13在第二支架11中转动,在转杆13上的齿轮轴17和红外激光发射器12尾部的环境锯齿结构啮合作用下,便于改变红外激光发射器12的整体的朝向角度,在红外线摄像头9和红外激光发射器12之间的连杆15作用下,进行两者的同步转动改变朝向,提高其使用范围线,适用于远近距离的良好定位角度测量工作进行。As shown in Figures 1-4, the compass body 1 and the base plate 2 are rotated through the bearing base 3, so that the position of the compass body 1 body and the electrical components installed on it changes, and the infrared laser transmitter 12 and the The infrared camera 9 and the image display screen 5 use infrared laser rays to measure and fix the angle. Under the action of the infrared camera 9 and the image display screen 5, the infrared laser rays can also be well observed on the image display screen 5 in strong light. Comparing the inclination angle between the infrared laser ray and the pointer of the compass body 1, the angle measurement can be carried out quickly, effectively and accurately. At the same time, since the infrared laser transmitter 12, the infrared camera 9 and the image display screen 5 all use the common electrical components in the market Use, compared with the internal electrical components in this technical solution, there is no structural and functional change, so the model and type are not limited. As shown in FIG. 4 and FIG. 1, when the lever 13 is manually rotated, the lever Rotating in the bracket 11, under the meshing action of the gear shaft 17 on the rotating rod 13 and the environmental sawtooth structure at the rear of the infrared laser transmitter 12, it is convenient to change the overall orientation angle of the infrared laser transmitter 12, and the infrared camera 9 and the infrared laser emission Under the action of the connecting rod 15 between the actuators 12, the synchronous rotation of the two is performed to change the direction, and the line of use is improved, which is suitable for the measurement of good positioning angles at far and near distances.

尽管参照前述实施例对本发明进行了详细的说明,对于本领域的技术人员来说,其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分技术特征进行等同替换,凡在本发明的精神和原则之内,所作的任何修改、等同替换、改进等,均应包含在本发明的保护范围之内。Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, it is still possible to modify the technical solutions described in the foregoing embodiments, or to perform equivalent replacements for some of the technical features. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims (7)

1.一种适应型多距离角度快速定位装置,包括罗盘本体(1)、影像显示屏(5)、红外线摄像头(9)和红外激光发射器(12),其特征在于:所述罗盘本体(1)固定安装于底板(2)的顶部中心处,且底板(2)的底部设置有轴承底座(3),并且轴承底座(3)的底部安装有伸缩支架(4),所述底板(2)的顶部边缘处安装有影像显示屏(5),且影像显示屏(5)的边侧和底板(2)之间设置有定位夹(6),并且定位夹(6)上安装有定位螺栓(7),而且影像显示屏(5)和罗盘本体(1)之间的底板(2)上设置有对准线(8),同时影像显示屏(5)的底部固定有红外线摄像头(9),所述底板(2)的底部边缘处安装有第一支架(10)和第二支架(11),且第一支架(10)和第二支架(11)上分别转轴连接有红外激光发射器(12)和转杆(13),并且底板(2)位于影像显示屏(5)底部的边侧预留有贯通孔(14),而且红外激光发射器(12)和红外线摄像头(9)之间连接有连杆(15),所述转杆(13)和第二支架(11)的连接处安装有阻尼环(16),且转杆(13)的中部固定有齿轮轴(17)。1. An adaptive multi-distance angle fast positioning device, comprising a compass body (1), an image display screen (5), an infrared camera (9) and an infrared laser transmitter (12), characterized in that: the compass body ( 1) It is fixedly installed at the top center of the bottom plate (2), and the bottom of the bottom plate (2) is provided with a bearing base (3), and the bottom of the bearing base (3) is provided with a telescopic bracket (4), the bottom plate (2) A video display screen (5) is installed at the top edge of the video display screen (5), and a positioning clip (6) is arranged between the side of the video display screen (5) and the bottom plate (2), and positioning bolts are installed on the positioning clip (6). (7), and an alignment line (8) is arranged on the bottom plate (2) between the image display screen (5) and the compass body (1), and an infrared camera (9) is fixed at the bottom of the image display screen (5). , a first bracket (10) and a second bracket (11) are installed at the bottom edge of the bottom plate (2), and the first bracket (10) and the second bracket (11) are respectively connected with infrared laser emitters on the rotating shafts (12) and the rotating rod (13), and a through hole (14) is reserved on the side of the bottom plate (2) at the bottom of the image display screen (5), and the infrared laser transmitter (12) and the infrared camera (9) are connected between A connecting rod (15) is connected therebetween, a damping ring (16) is installed at the connection between the rotating rod (13) and the second bracket (11), and a gear shaft (17) is fixed in the middle of the rotating rod (13). 2.根据权利要求1所述的一种适应型多距离角度快速定位装置,其特征在于:所述罗盘本体(1)、底板(2)和伸缩支架(4)之间竖向同轴设置,且底板(2)和伸缩支架(4)构成相对旋转结构。2. An adaptive multi-distance angle quick positioning device according to claim 1, characterized in that: the compass body (1), the bottom plate (2) and the telescopic bracket (4) are arranged vertically and coaxially, And the bottom plate (2) and the telescopic support (4) constitute a relative rotation structure. 3.根据权利要求1所述的一种适应型多距离角度快速定位装置,其特征在于:所述影像显示屏(5)通过定位夹(6)与底板(2)之间设置为拆卸安装结构,且影像显示屏(5)与红外线摄像头(9)、红外激光发射器(12)和罗盘本体(1)的竖向中心轴线共面。3. An adaptive multi-distance angle quick positioning device according to claim 1, characterized in that: the image display screen (5) is set as a dismounting and mounting structure between the positioning clip (6) and the bottom plate (2) , and the image display screen (5) is coplanar with the vertical center axis of the infrared camera (9), the infrared laser transmitter (12) and the compass body (1). 4.根据权利要求1所述的一种适应型多距离角度快速定位装置,其特征在于:所述红外线摄像头(9)和红外激光发射器(12)之间相互平行设置,且红外线摄像头(9)和红外激光发射器(12)均设置为转轴连接的旋转结构,并且红外线摄像头(9)和红外激光发射器(12)之间的转轴连接线与连杆(15)相互平行设置。4. An adaptive multi-distance angle fast positioning device according to claim 1, wherein the infrared camera (9) and the infrared laser transmitter (12) are arranged in parallel with each other, and the infrared camera (9) ) and the infrared laser transmitter (12) are both arranged in a rotating structure connected by a rotating shaft, and the rotating shaft connecting line and the connecting rod (15) between the infrared camera (9) and the infrared laser transmitter (12) are arranged parallel to each other. 5.根据权利要求1所述的一种适应型多距离角度快速定位装置,其特征在于:所述红外激光发射器(12)的端部设置为环形锯齿状结构,且红外激光发射器(12)的环形锯齿状结构和齿轮轴(17)之间相互啮合连接。5. An adaptive multi-distance angle fast positioning device according to claim 1, characterized in that: the end of the infrared laser transmitter (12) is provided with a ring-shaped sawtooth structure, and the infrared laser transmitter (12) ) and the gear shaft (17) in meshing connection with each other. 6.根据权利要求1所述的一种适应型多距离角度快速定位装置,其特征在于:所述转杆(13)的长度大于底板(2)的宽度,且转杆(13)与第二支架(11)之间转动连接。6. An adaptive multi-distance angle quick positioning device according to claim 1, characterized in that: the length of the rotating rod (13) is greater than the width of the bottom plate (2), and the rotating rod (13) and the second The brackets (11) are rotatably connected. 7.一种适应型多距离角度快速定位装置的定位方法,其特征在于:所述具体定位方法为:在使用该适应型多距离角度快速定位装置时,在进行装置的使用时,通过定位夹(6)和定位螺栓(7)将影像显示屏(5)固定安装于底板(2)的边缘处,利用对准线(8)达到影像显示屏(5)的使用定位目的,方便影像显示屏(5)的安装定位,且在定位后位置稳定,使得角度定位测量更加精确,利用伸缩支架(4)的伸缩运动,方便将装置的整体高度进行改变,达到调整装置的使用高度目的,从而方便不同远近的点定位角度测量;7. A positioning method of an adaptive multi-distance angle rapid positioning device, characterized in that: the specific positioning method is: when using the adaptive multi-distance angle rapid positioning device, when the device is used, a positioning clip (6) and positioning bolts (7) to fix the image display screen (5) on the edge of the bottom plate (2), and use the alignment line (8) to achieve the use and positioning purpose of the image display screen (5), which is convenient for the image display screen (5) is installed and positioned, and the position is stable after positioning, which makes the angle positioning measurement more accurate. Using the telescopic motion of the telescopic bracket (4), it is convenient to change the overall height of the device, so as to achieve the purpose of adjusting the height of the device, which is convenient Point positioning angle measurement at different distances; 通过轴承底座(3)进行罗盘本体(1)和底板(2)的旋转,使得罗盘本体(1)本体及其上安装的电气元件位置发生移动改变,在旋转时同步开启红外激光发射器(12)和红外线摄像头(9)及影像显示屏(5),利用红外激光射线进行角度测量定点,在红外线摄像头(9)及影像显示屏(5)的作用下,于强光内也能够进行红外激光射线在影像显示屏(5)上良好观察,将红外激光射线与罗盘本体(1)的指针倾斜角度对比,能够快速有效而精确的进行角度测量工作,在手动转杆(13)时,转杆(13)在第二支架(11)中转动,在转杆(13)上的齿轮轴(17)和红外激光发射器(12)尾部的环境锯齿结构啮合作用下,便于改变红外激光发射器(12)的整体的朝向角度,在红外线摄像头(9)和红外激光发射器(12)之间的连杆(15)作用下,进行两者的同步转动改变朝向,提高其使用范围线,适用于远近距离的良好定位角度测量工作进行。The compass body (1) and the base plate (2) are rotated through the bearing base (3), so that the position of the compass body (1) body and the electrical components mounted on it is moved and changed, and the infrared laser transmitter (12) is turned on synchronously during rotation. ) and an infrared camera (9) and an image display screen (5), use infrared laser rays to measure and fix the angle, and under the action of the infrared camera (9) and the image display screen (5), infrared laser light can also be carried out in strong light. The rays are well observed on the image display screen (5), and the infrared laser rays are compared with the inclination angle of the pointer of the compass body (1), so that the angle measurement can be carried out quickly, effectively and accurately. (13) Rotating in the second bracket (11), under the meshing action of the gear shaft (17) on the rotating rod (13) and the environmental sawtooth structure at the rear of the infrared laser transmitter (12), it is convenient to change the infrared laser transmitter ( 12) The overall orientation angle, under the action of the connecting rod (15) between the infrared camera (9) and the infrared laser transmitter (12), the synchronous rotation of the two is performed to change the orientation, and the line of use is improved, which is suitable for A good positioning angle measurement work at far and near distances is carried out.
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