CN111595270A - Brickwork squareness measuring tool - Google Patents
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- CN111595270A CN111595270A CN202010357147.1A CN202010357147A CN111595270A CN 111595270 A CN111595270 A CN 111595270A CN 202010357147 A CN202010357147 A CN 202010357147A CN 111595270 A CN111595270 A CN 111595270A
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- G01B—MEASURING LENGTH, THICKNESS OR SIMILAR LINEAR DIMENSIONS; MEASURING ANGLES; MEASURING AREAS; MEASURING IRREGULARITIES OF SURFACES OR CONTOURS
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Abstract
本发明涉及建筑施工测量设备领域,具体公开了一种砌体方正度测量工具,包括支撑架、定位装置和激光对准装置;支撑架上设有两个定位装置,定位装置包括导向轨道座、滑座和定位抵杆,导向轨道座转动连接在支撑架上,导向轨道座上设有定位点;滑座滑动配合在导向轨道座内,定位抵杆连接在滑座上,定位抵杆沿导向轨道座的长度方向延伸;激光对准装置设在支撑架的一端,激光对准装置包括两条水平的激光束a和激光束b,激光束a与激光束b相互垂直。本测量工具便于方便操作,检测结果准确,省去了实测过程中的人工成本、时间成本,且无需多次调节便可快速检测方正度,提高了实测实量工作效率。
The invention relates to the field of building construction measuring equipment, and specifically discloses a masonry squareness measuring tool, comprising a support frame, a positioning device and a laser alignment device; the support frame is provided with two positioning devices, and the positioning device comprises a guide rail seat, The sliding seat and the positioning abutting rod, the guide rail seat is rotatably connected to the support frame, and a positioning point is arranged on the guiding rail seat; The length direction of the track seat extends; the laser alignment device is arranged at one end of the support frame, the laser alignment device includes two horizontal laser beams a and b, and the laser beam a and the laser beam b are perpendicular to each other. The measuring tool is easy to operate, accurate in detection results, saves labor cost and time cost in the actual measurement process, and can quickly detect the squareness without multiple adjustments, which improves the work efficiency of actual measurement.
Description
技术领域technical field
本发明涉及建筑施工测量设备领域,具体涉及一种砌体方正度测量工具。The invention relates to the field of building construction measuring equipment, in particular to a masonry squareness measuring tool.
背景技术Background technique
各大地产越来越重视在建项目过程评估,其中实测实量是占比较大的一部分。目前,建筑工程施工现场砌体、抹灰工程开间方正度实测实量工具采用的是红外线加人工调节测量方法,其测量的步骤为:打开红外线测量仪→两测量人员调节红外线使红外线与墙平行→使用卷尺测量另一侧红外线离墙间距。此测量方法的第二步骤需多人配合才可完成,且在调节红外线与墙平行过程中较为费时,将大大拖缓实测实量效率。这样会过多浪费的人力、时间,与目前施工现场实测实量的发展需求严重不符。Major real estate companies pay more and more attention to the process evaluation of projects under construction, of which the actual measurement and quantity are a large part. At present, the actual measurement tool for measuring the squareness of the masonry and plastering works on the construction site is the infrared plus manual adjustment measurement method. The measurement steps are: turn on the infrared measuring instrument → two measuring personnel adjust the infrared rays to make the infrared rays parallel to the wall →Use a tape measure to measure the distance between the infrared rays on the other side and the wall. The second step of this measurement method requires the cooperation of multiple people, and the process of adjusting the parallelism of the infrared rays to the wall is time-consuming, which will greatly slow down the actual measurement efficiency. This will waste too much manpower and time, which is seriously inconsistent with the current development needs of the actual measurement on the construction site.
发明内容SUMMARY OF THE INVENTION
有鉴于此,本发明的目的是克服现有技术中的缺陷,提供一种砌体方正度测量工具。In view of this, the purpose of the present invention is to overcome the defects in the prior art and provide a masonry squareness measuring tool.
为了解决上述技术问题,本发明采用以下技术方案:In order to solve the above-mentioned technical problems, the present invention adopts the following technical solutions:
一种砌体方正度测量工具,包括支撑架、定位装置和激光对准装置;所述支撑架上设有两个所述定位装置,定位装置包括导向轨道座、滑座和定位抵杆,所述导向轨道座转动连接在支撑架上,导向轨道座上设有定位点;所述滑座滑动配合在导向轨道座内,所述定位抵杆连接在滑座上,定位抵杆沿导向轨道座的长度方向延伸;A masonry squareness measuring tool, comprising a support frame, a positioning device and a laser alignment device; the support frame is provided with two of the positioning devices, and the positioning devices include a guide rail seat, a sliding seat and a positioning abutting rod. The guide track seat is rotatably connected to the support frame, and the guide track seat is provided with a positioning point; the sliding seat is slidably fitted in the guide track seat, the positioning abutting rod is connected to the sliding seat, and the positioning abutting rod is along the guiding track seat. lengthwise extension;
所述激光对准装置设在支撑架的一端,激光对准装置包括两条水平的激光束a和激光束b,所述激光束a与所述激光束b相互垂直,激光束a沿支撑架的长度方向传输;测量时,激光束a与两个所述定位点重合,两根定位抵杆垂直抵接墙面且伸出量相同。The laser alignment device is located at one end of the support frame. The laser alignment device includes two horizontal laser beams a and b. The laser beam a and the laser beam b are perpendicular to each other, and the laser beam a is along the support frame. During the measurement, the laser beam a coincides with the two positioning points, and the two positioning rods are vertically abutted against the wall with the same amount of extension.
进一步地,所述导向轨道座上开设有滑槽,滑座滑动配合在所述滑槽内;滑座包括第一滑块、微调机构和第二滑块,所述第一滑块与所述第二滑块分别连接在所述微调机构的两端,定位抵杆设在第二滑块上,定位抵杆朝远离第一滑块的一方延伸,微调机构用于对定位抵杆的进给动作进行精确微调。Further, the guide rail seat is provided with a sliding groove, and the sliding seat is slidably fitted in the sliding groove; the sliding seat includes a first sliding block, a fine adjustment mechanism and a second sliding block, and the first sliding block and the The second sliders are respectively connected to the two ends of the fine adjustment mechanism, the positioning abutment rods are arranged on the second sliders, the positioning abutment rods extend toward the side away from the first slider, and the fine adjustment mechanism is used to feed the positioning abutment rods The movements are fine-tuned with precision.
进一步地,所述微调机构包括手轮、微调螺杆和螺母,所述手轮的一侧同轴设有转轴,所述转轴转动连接在第一滑块上;所述微调螺杆同轴设在手轮背离转轴的一侧,所述螺母固定在第二滑块上,微调螺杆螺纹配合在螺母内。Further, the fine-tuning mechanism includes a handwheel, a fine-tuning screw and a nut, one side of the handwheel is coaxially provided with a rotating shaft, and the rotating shaft is rotatably connected to the first slider; the fine-tuning screw is coaxially arranged on the hand wheel. On the side of the wheel facing away from the rotating shaft, the nut is fixed on the second sliding block, and the fine adjustment screw thread is fitted in the nut.
进一步地,所述导向轨道座上设有刻度,第二滑块上设有标示线;滑槽内的两端设有限位块,第一滑块朝向第二滑块的一面设有限位杆。Further, the guide rail seat is provided with a scale, and the second slide block is provided with a marking line; the two ends of the chute are provided with limit blocks, and the side of the first slide block facing the second slide block is provided with a limit rod.
进一步地,所述滑槽为燕尾槽,第一滑块和第二滑块适形配合在滑槽内;第一滑块上开设有第一紧固孔,所述第一紧固孔内螺纹配合有第一锁紧螺杆,所述第一锁紧螺杆的一端穿过第一紧固孔后可顶紧在滑槽的槽底。Further, the sliding groove is a dovetail groove, and the first sliding block and the second sliding block are conformally fitted in the sliding groove; the first sliding block is provided with a first tightening hole, and the first tightening hole has an internal thread. A first locking screw rod is matched, and one end of the first locking screw rod can be pressed against the bottom of the chute after passing through the first fastening hole.
进一步地,所述导向轨道座的一端设有用于支撑定位抵杆的托架,定位抵杆滑动配合在所述托架上。Further, one end of the guide rail seat is provided with a bracket for supporting the positioning abutting rod, and the positioning abutting rod is slidably fitted on the bracket.
进一步地,所述导向轨道座的底部设有转向柱,所述转向柱转动连接在支撑架上;支撑架上设有第二紧固孔和第三紧固孔,导向轨道座上设有第一支耳和第二支耳,所述第一支耳上螺纹配合有第二锁紧螺杆,所述第二支耳上螺纹配合有第三锁紧螺杆;Further, the bottom of the guide rail seat is provided with a steering column, and the steering column is rotatably connected to the support frame; the support frame is provided with a second fastening hole and a third fastening hole, and the guide rail seat is provided with a third fastening hole. a second lug and a second lug, the first lug is threaded with a second locking screw, and the second lug is threaded with a third locking screw;
当所述第二锁紧螺杆锁紧在所述第二紧固孔时,定位抵杆平行于激光束a,当所述第三锁紧螺杆锁紧在所述第三紧固孔时,定位抵杆垂直于激光束a。When the second locking screw is locked in the second fastening hole, the positioning rod is parallel to the laser beam a; when the third locking screw is locked in the third fastening hole, the positioning rod is positioned parallel to the laser beam a. The rod is perpendicular to the laser beam a.
进一步地,所述支撑架包括两个底座和两根平行布置的滑杆,每个所述底座上设有一个导向轨道座,底座滑动配合在两根所述滑杆上;Further, the support frame includes two bases and two parallel sliding rods, each of the bases is provided with a guide rail seat, and the base is slidably fitted on the two sliding rods;
所述底座上设有第四紧固孔,所述第四紧固孔内螺纹配合有第四锁紧螺杆,所述第四锁紧螺杆穿过第四紧固孔后可顶紧在滑杆上。The base is provided with a fourth tightening hole, the fourth tightening hole is internally threaded with a fourth locking screw, and the fourth locking screw can be pressed against the sliding rod after passing through the fourth tightening hole. superior.
进一步地,还包括升降支架,所述升降支架包括支脚座、升降螺杆和托板,所述支脚座设有螺孔,所述升降螺杆沿竖向螺纹配合在所述螺孔内,所述托板设在升降螺杆的顶端,支座安装在托板上。Further, it also includes a lifting bracket, the lifting bracket includes a support foot seat, a lifting screw rod and a support plate, the support foot seat is provided with a screw hole, the lifting screw rod is vertically threaded in the screw hole, and the support plate is The plate is arranged at the top of the lifting screw, and the support is installed on the pallet.
本发明的有益效果是:The beneficial effects of the present invention are:
(1)本发明的砌体方正度测量工具,通过转动导向轨道座,使两根定位抵杆垂直抵接墙面且伸出量相同,此时,激光束a与两个定位点重合。再测量激光束b离墙的距离,测量多个位置并记录数据。该测量工具相比传统测量,每次测量可由一名测量人员独立完成,且进行多次方正度测量时,无需对测量工具进行多次调节,可快速调节后即可投入使用。本测量工具便于方便操作,检测结果准确,省去了实测过程中的人工成本、时间成本,且无需多次调节便可快速检测方正度,提高了实测实量工作效率。(1) In the masonry squareness measuring tool of the present invention, by rotating the guide rail seat, the two positioning abutting rods are vertically abutted against the wall surface and have the same extension. At this time, the laser beam a coincides with the two positioning points. Then measure the distance of the laser beam b from the wall, measure several positions and record the data. Compared with the traditional measurement, the measuring tool can be independently completed by one measuring person each time, and when multiple squareness measurements are performed, the measuring tool does not need to be adjusted many times, and can be put into use after quick adjustment. The measuring tool is easy to operate, accurate in detection results, saves labor cost and time cost in the actual measurement process, and can quickly detect the squareness without multiple adjustments, which improves the work efficiency of actual measurement.
(2)通过在第一滑块和第二滑块之间设置微调机构,当推动定位抵杆朝墙面移动,在定位抵杆还未接触墙面时停下,再通过调节微调机构使定位抵杆缓慢抵靠在墙面上,从而防止推动定位抵杆直接抵靠墙面,使定位抵杆因受力过猛产生变形,进而影响检测的精确度。(2) By setting a fine adjustment mechanism between the first slider and the second slider, when the positioning abutting rod is pushed to move toward the wall, it stops when the positioning abutting rod has not yet contacted the wall, and then the positioning is adjusted by adjusting the fine adjustment mechanism. The abutment rod slowly abuts on the wall, so as to prevent the positioning abutment rod from being pushed directly against the wall surface, so that the positioning abutment rod is deformed due to excessive force, thereby affecting the detection accuracy.
(3)本测量工具的适用范围广,定位抵杆伸缩可调节,可根据墙体长短、检测要求,快速检测不同位置,不同开间的方正度。(3) This measuring tool has a wide range of applications, and the positioning rod can be adjusted to expand and contract. It can quickly detect the squareness of different positions and different bays according to the length of the wall and the detection requirements.
附图说明Description of drawings
为了更清楚地说明本发明具体实施方式或现有技术中的技术方案,下面将对具体实施方式或现有技术描述中所需要使用的附图作简单地介绍。在所有附图中,类似的元件或部分一般由类似的附图标记标识。附图中,各元件或部分并不一定按照实际的比例绘制。In order to illustrate the specific embodiments of the present invention or the technical solutions in the prior art more clearly, the following briefly introduces the accompanying drawings that are required to be used in the description of the specific embodiments or the prior art. Similar elements or parts are generally identified by similar reference numerals throughout the drawings. In the drawings, each element or section is not necessarily drawn to actual scale.
图1为本发明一种砌体方正度测量工具测量时的结构示意图;1 is a schematic structural diagram of a masonry squareness measuring tool of the present invention during measurement;
图2为定位装置的剖面示意图;2 is a schematic cross-sectional view of a positioning device;
图3为测量工具的结构示意图;Fig. 3 is the structural representation of the measuring tool;
图4为图3中A处的局部放大图;Fig. 4 is the partial enlarged view of A place in Fig. 3;
图5为升降支架的结构示意图。FIG. 5 is a schematic view of the structure of the lifting bracket.
附图标记:Reference number:
1-支撑架,11-第二紧固孔,12-底座,13-滑杆,2-定位装置,21-导向轨道座,211-滑槽,212-限位块,213-限位杆,214-转向柱,215-第一支耳,216-第二支耳,22-定位抵杆,23-定位点,24-第一滑块,25-微调机构,251-手轮,252-微调螺杆,253-螺母,254-转轴,26-第二滑块,27-刻度,28-标示线,29-托架,3-激光对准装置,31-激光束a,32-激光束b,41-第一锁紧螺杆,42-第二锁紧螺杆,43-第三锁紧螺杆,44-第四锁紧螺杆,5-升降支架,51-支脚座,52-升降螺杆,53-托板。1-Support frame, 11-Second fastening hole, 12-Base, 13-Slide rod, 2-Positioning device, 21-Guide track seat, 211-Chute, 212-Limit block, 213-Limit rod, 214-steering column, 215-first lug, 216-second lug, 22-positioning lever, 23-positioning point, 24-first slider, 25-fine adjustment mechanism, 251-handwheel, 252-fine adjustment Screw, 253-nut, 254-rotating shaft, 26-second slider, 27-scale, 28-marking line, 29-bracket, 3-laser alignment device, 31-laser beam a, 32-laser beam b, 41-first locking screw, 42-second locking screw, 43-third locking screw, 44-fourth locking screw, 5-lifting bracket, 51-foot seat, 52-lifting screw, 53-support plate.
具体实施方式Detailed ways
下面结合实施例对本发明做进一步的详细说明。The present invention will be further described in detail below in conjunction with the embodiments.
为了使本发明的目的、技术方案及优点更加清楚明白,以下结合附图及实施例,对本发明进行进一步详细说明。应当理解,此处所描述的具体实施例仅仅用以解释本发明,并不用于限定本发明。In order to make the objectives, technical solutions and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention, but not to limit the present invention.
参阅图1,为本发明的一种砌体方正度测量工具,该测量工具包括支撑架1、定位装置2和激光对准装置3;支撑架1上设有两个定位装置2,定位装置2包括导向轨道座21、滑座和定位抵杆22,导向轨道座21转动连接在支撑架1上,导向轨道座21上设有定位点23;滑座滑动配合在导向轨道座21内,定位抵杆22连接在滑座上,定位抵杆22沿导向轨道座21的长度方向延伸;激光对准装置3设在支撑架1的一端,激光对准装置3包括两条水平的激光束a31和激光束b32,激光束a31与激光束b32相互垂直,激光束a31沿支撑架1的长度方向传输;测量时,激光束a31与两个定位点23重合,两根定位抵杆22垂直抵接墙面且伸出量相同。Referring to FIG. 1, it is a masonry squareness measuring tool of the present invention, the measuring tool includes a support frame 1, a
本发明的砌体方正度测量工具,支撑架1上设有两个定位装置2,定位装置2的定位抵杆22呈水平设置,激光对准装置3包括两个激光仪。通过分别转动两个导向轨道座21,使激光束a31与两个定位点23同时重合,然后分别滑动导向轨道座21内的滑座,使两根定位抵杆22垂直抵接墙面,并且控制两根定位抵杆22相对于导向轨道座21的伸出量相同,即两根定位抵杆22的端头抵接墙面的移动距离相同,此时,激光束a31与墙面平行。由于激光束a31与激光束b32相互垂直,因此,再测量激光束b32离墙的距离,测量多个位置(沿激光束b32的传输方向至少测量三个位置),并记录数据,从而测量出该砌体的方正度。In the masonry squareness measuring tool of the present invention, the support frame 1 is provided with two
该测量工具相比传统测量,每次测量可由一名测量人员独立完成,且进行多次方正度测量时,无需对测量工具进行多次调节,可快速调节后即可投入使用。本测量工具便于方便操作,检测结果准确,省去了实测过程中的人工成本、时间成本,且无需多次调节便可快速检测方正度,提高了实测实量工作效率。Compared with the traditional measurement, the measuring tool can be independently completed by one measuring person each time, and when multiple squareness measurements are performed, the measuring tool does not need to be adjusted many times, and can be put into use after quick adjustment. The measuring tool is easy to operate, accurate in detection results, saves labor cost and time cost in the actual measurement process, and can quickly detect the squareness without multiple adjustments, which improves the work efficiency of actual measurement.
具体地,参阅图2和图4,导向轨道座21上开设有滑槽211,滑座滑动配合在滑槽211内;滑座包括第一滑块24、微调机构25和第二滑块26,第一滑块24与第二滑块26分别连接在微调机构25的两端,定位抵杆22设在第二滑块26上,定位抵杆22朝远离第一滑块24的一方延伸,微调机构25用于对定位抵杆22的进给动作进行精确微调。Specifically, referring to FIGS. 2 and 4 , the
本实施例中,在第一滑块24和第二滑块26之间设置有微调机构25,当推动定位抵杆22朝墙面移动,在定位抵杆22还未接触墙面时停下,此时,定位抵杆22的端头与墙面之间还具有间隙,再通过调节微调机构25使定位抵杆22缓慢抵靠在墙面上,从而防止推动定位抵杆22直接抵靠墙面,使定位抵杆22因受力过猛产生变形,进而影响检测的精确度。In this embodiment, a
在一个具体实施例中,微调机构25包括手轮251、微调螺杆252和螺母253,手轮251的一侧同轴设有转轴254,转轴254转动连接在第一滑块24上;微调螺杆252同轴设在手轮251背离转轴254的一侧,螺母253固定在第二滑块26上,微调螺杆252螺纹配合在螺母253内。In a specific embodiment, the fine-
在第一滑块24上设有轴承,转轴254则固定在轴承内。微调螺杆252和转轴254分别同轴设在手轮251的两侧,微调螺杆252与定位抵杆22平行设置。将第一滑块24固定,转动手轮251,微调螺杆252与螺母253螺纹配合会带动第二滑块26相对于第一滑块24做靠近或远离的动作,从而对对定位抵杆22的进给动作进行精确微调,提高测量精度。A bearing is provided on the first sliding
在一个具体实施例中,导向轨道座21上设有刻度27,第二滑块26上设有标示线28;滑槽211内的两端设有限位块212,第一滑块24朝向第二滑块26的一面设有限位杆213。In a specific embodiment, the
限位块212可防止第一滑块24或第二滑块26因操作不慎而滑出滑槽211。在导向轨道座21的顶面设有刻度27,刻度27沿导向轨道座21的长度方向设置,第二滑块26上设有标示线28,标示线28与刻度27对齐后,可准确的读取定位抵杆22的移动距离。同时,为了保证标示线28在复位后对准刻度27的起始点,在第一滑块24上设有限位杆213,当第一滑块24抵靠在限位块212上,调节手轮251使第二滑块26抵靠在限位杆213上,此时,标示线28与刻度27的起始点重合,如此,保证了每次调节定位抵杆22的伸出量始终相同,保证测量的准确性。The limiting
在一个具体实施例中,滑槽211为燕尾槽,第一滑块24和第二滑块26适形配合在滑槽211内;第一滑块24上开设有第一紧固孔,第一紧固孔内螺纹配合有第一锁紧螺杆41,第一锁紧螺杆41的一端穿过第一紧固孔后可顶紧在滑槽211的槽底。In a specific embodiment, the sliding
当调节好定位抵杆22的伸出量好,为了防止误碰第一滑块24或者定位抵杆22造成伸出量读数的变化,因此,通过旋紧第一锁紧螺杆41,使第一锁紧螺杆41的一端穿过第一紧固孔后顶紧在滑槽211的槽底,从而将第一滑块24的斜面与燕尾状滑槽211的斜面顶紧,进而将第一滑块24锁定在滑槽211内。当然,第二滑块26上也可设置第一紧固孔和第一锁紧螺杆41,如此,可同时锁定第一滑块24和第二滑块26。When the protruding amount of the
在一个具体实施例中,为了保证定位抵杆22在伸出过程中保持水平状态,导向轨道座21的一端设有用于支撑定位抵杆22的托架29,定位抵杆22滑动配合在托架29上。In a specific embodiment, in order to ensure that the
在一个具体实施例中,导向轨道座21的底部设有转向柱214,转向柱214转动连接在支撑架1上;支撑架1上设有第二紧固孔11和第三紧固孔,导向轨道座21上设有第一支耳215和第二支耳216,第一支耳215上螺纹配合有第二锁紧螺杆42,第二支耳216上螺纹配合有第三锁紧螺杆43;当第二锁紧螺杆42锁紧在第二紧固孔11时,定位抵杆22平行于激光束a31,当第三锁紧螺杆43锁紧在第三紧固孔时,定位抵杆22垂直于激光束a31。In a specific embodiment, the bottom of the
在测量前,需要转动导向轨道座21来调节定位抵杆22垂直抵靠在墙面上,而测量后,需要将导向轨道座21复位,因此,通过将第一支耳215上的第二锁紧螺杆42锁紧在第二紧固孔11内,导向轨道座21的长度方向与支撑架1的长度方向平行,此时定位抵杆22也与激光束a31平行。通过转动导向轨道座21,将第二支耳216上的第三锁紧螺杆43锁紧在第三紧固孔内,此时,导向轨道座21的长度方向与支撑架1的长度方向垂直,同时,定位抵杆22也与激光束a31垂直,节课将导向轨道座21锁定在与支撑架1呈90°夹角状态。Before the measurement, the
在一个具体实施例中,参阅图3,支撑架1包括两个底座12和两根平行布置的滑杆13,每个底座12上设有一个导向轨道座21,底座12滑动配合在两根滑杆13上;底座12上设有第四紧固孔,第四紧固孔内螺纹配合有第四锁紧螺杆44,第四锁紧螺杆44穿过第四紧固孔后可顶紧在滑杆13上。In a specific embodiment, referring to FIG. 3 , the support frame 1 includes two
为了提高本测量工具适用范围,支撑架1包括底座12和滑杆13,底座12滑动配合在滑杆13上,而每个底座12上设有一个导向轨道座21。通过将第四锁紧螺杆44锁紧在第四紧固孔内,使第四锁紧螺杆44顶紧在滑杆13上,从而将底座12固定在滑杆13上。而旋松第四锁紧螺杆44后,也可任意滑动底座12的位置。如此,提高了本测量工具的适用范围,可根据墙体长短、检测要求,快速检测不同位置,不同开间的方正度。In order to improve the applicable scope of the measuring tool, the support frame 1 includes a
参阅图5,在一个具体实施例中,还包括升降支架5,升降支架5包括支脚座51、升降螺杆52和托板53,支脚座51设有螺孔,升降螺杆52沿竖向螺纹配合在螺孔内,托板53设在升降螺杆52的顶端,底座12安装在托板53上。为了将支撑架1安装固定在楼板上,本实施例中还包括升降支架5,测量前,旋转托板53,带动升降螺杆52相对于支脚座51升降,将两个升降支架5的托板53调节成相同高度,再将底座12放置在托板53上即可。Referring to FIG. 5 , in a specific embodiment, it also includes a
使用该测量工具测量方正度的步骤如下:The steps to measure squareness using this measuring tool are as follows:
第一步:根据待测墙体的长度,调节两个底座12在滑杆13上的间距,并使用第四锁紧螺杆44锁定;The first step: according to the length of the wall to be measured, adjust the distance between the two
第二步:旋转托板53,将两个升降支架5的托板53调节成相同水平高度,并调节好两个升降支架5的间距,再将底座12放置在托板53上;The second step: rotate the supporting
第三步:转动导向轨道座21,将第三锁紧螺杆43锁紧在第三紧固孔内;Step 3: Rotate the
第四步:观察标示线28与刻度27的起始点是否重合,重合后,滑动第一滑块24使定位抵杆22还未接触墙面时停下,旋转手轮251使定位抵杆22缓慢抵靠在墙面上,最后锁定第一锁紧螺杆41;Step 4: Observe whether the marking
第五步:调节两根定位抵杆22的移动距离一致,并且均抵靠在墙面;Step 5: Adjust the moving distances of the two
第六步:测量激光束b32离墙的距离,测量多个位置(沿激光束b32的传输方向至少测量三个位置),并记录数据。Step 6: Measure the distance of the laser beam b32 from the wall, measure multiple positions (at least three positions are measured along the transmission direction of the laser beam b32), and record the data.
最后说明的是,以上实施例仅用以说明本发明的技术方案而非限制,尽管参照较佳实施例对本发明进行了详细说明,本领域的普通技术人员应当理解,可以对本发明的技术方案进行修改或者等同替换,而不脱离本发明技术方案的宗旨和范围,其均应涵盖在本发明的权利要求范围当中。Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and not to limit them. Although the present invention has been described in detail with reference to the preferred embodiments, those of ordinary skill in the art should understand that the technical solutions of the present invention can be Modifications or equivalent substitutions without departing from the spirit and scope of the technical solutions of the present invention should be included in the scope of the claims of the present invention.
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