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本发明涉及一种温度采集系统,更具体地说是一种应用于带状无油润滑轴承生产线、快速高精度、抗干扰性能强的工业现场温度采集系统。The invention relates to a temperature acquisition system, in particular to an industrial field temperature acquisition system which is applied to a belt-shaped oil-free lubricating bearing production line, has high speed, high precision and strong anti-interference performance.
背景技术Background technique
温度是表征物体冷热程度的物理量,是工农业生产过程中一个很重要而普遍的测量参数。温度的测量及控制对保证产品质量、提高生产效率、节约能源、生产安全、促进国民经济的发展起到非常重要的作用。Temperature is a physical quantity that characterizes the degree of cold and heat of an object, and is a very important and common measurement parameter in the process of industrial and agricultural production. Temperature measurement and control play a very important role in ensuring product quality, improving production efficiency, saving energy, producing safety, and promoting the development of the national economy.
温度传感器是通过测量物体随温度变化而改变某种特性来间接测量的。不少材料、元件的特性都随温度的变化而变化,所以能用作温度传感器的材料相当多。温度传感器随温度而引起物理参数变化的有:膨胀系数、电阻、电容、电动势、磁性能、频率、光学特性及热噪声等等。Temperature sensors measure indirectly by measuring the change in a certain characteristic of an object as the temperature changes. The characteristics of many materials and components change with temperature, so there are quite a few materials that can be used as temperature sensors. The physical parameters of the temperature sensor that change with temperature include: expansion coefficient, resistance, capacitance, electromotive force, magnetic properties, frequency, optical properties and thermal noise.
同时随着工业的发展,工业现场的复杂度、非相似度越来越高,工业现场对温度测量的要求也越来越高,使得针对不同的工业现场所需的温度传感器的要求越来越高,其中高温无油润滑轴承的生产现场所需的温度精度要求非常之高,且在某些地方需要快速、高精度测量。At the same time, with the development of industry, the complexity and dissimilarity of industrial sites are getting higher and higher, and the requirements for temperature measurement in industrial sites are also getting higher and higher, so that the requirements for temperature sensors for different industrial sites are getting higher and higher. The temperature accuracy required in the production site of high-temperature oil-free bearings is very high, and fast and high-precision measurement is required in some places.
发明内容SUMMARY OF THE INVENTION
本发明旨在至少在一定程度上解决上述技术问题之一,为此,本发明提出一种操作方便、快速、高精度、成本低的温度采集系统,应用于带状无油润滑轴承生产线。The present invention aims to solve one of the above technical problems at least to a certain extent. Therefore, the present invention proposes a temperature acquisition system with convenient operation, high speed, high precision and low cost, which is applied to a belt-shaped oil-free bearing production line.
为实现上述目的,本发明采用如下技术方案:To achieve the above object, the present invention adopts the following technical solutions:
一种应用于带状无油润滑轴承生产线的温度采集系统,包括抗高频干扰温度采集单元、高温温度采集单元、热轧辊温度采集单元及温度采集电路;A temperature acquisition system applied to a belt-shaped oil-free lubricated bearing production line, comprising an anti-high frequency interference temperature acquisition unit, a high temperature temperature acquisition unit, a hot roll temperature acquisition unit and a temperature acquisition circuit;
所述抗高频干扰温度采集单元是在高频炉固定座上分别设置工业高频炉及位于工业高频炉正前方的高频炉温度传感器固定架,三个Ⅰ型温度传感器以等间距横向间隔排列、固定安装在所述高频炉温度传感器固定架上,并是分别按照带状无油润滑轴承的中心位置、及两侧边缘横向向内间距50mm的位置,一一对应地悬吊于带状高温无油润滑轴承正上方;The anti-high-frequency interference temperature acquisition unit is to set an industrial high-frequency furnace and a high-frequency furnace temperature sensor fixing frame directly in front of the industrial high-frequency furnace on the high-frequency furnace fixing seat. It is arranged at intervals and fixedly installed on the high-frequency furnace temperature sensor fixing frame, and is respectively suspended on the center position of the belt-shaped oil-free bearing and the position of 50mm laterally inwardly between the edges on both sides. Just above the belt-shaped high-temperature oil-free lubricated bearing;
所述高温温度采集单元是在工业高频炉正前方设置工业恒温炉,在所述工业恒温炉的前端设置恒温炉温度传感器,三个Ⅱ型温度传感器与三个Ⅰ型温度传感器一一对应前后向对齐布设、固定安装在所述恒温炉传感器固定架上,悬吊于带状高温无油润滑轴承正上方;The high-temperature temperature acquisition unit is provided with an industrial constant temperature furnace directly in front of the industrial high-frequency furnace, and a constant temperature furnace temperature sensor is set at the front end of the industrial constant temperature furnace. It is arranged and fixedly installed on the sensor holder of the constant temperature furnace, and is suspended directly above the belt-shaped high-temperature oil-free lubricating bearing;
所述热轧辊温度采集单元是在工业恒温炉正前方设置辊子支撑台,所述辊子支撑台是以设于下端部的支撑板承托带状高温无油润滑轴承,以设于支撑板正上方、能够绕中轴回转的热轧辊形成对带状高温无油润滑轴承的辊压,三个Ⅲ型温度传感器通过辊子支撑台上的热轧辊温度传感器固定架悬吊于热轧辊正上方,并是按照热轧辊轴线四等分点的对应位置横向间隔、且以热轧辊的轴向中心为对称中心呈对称分布;The temperature collection unit of the hot roll is to set a roller support table right in front of the industrial constant temperature furnace. , The hot roll that can rotate around the central axis forms the rolling pressure on the belt-shaped high-temperature oil-free lubricated bearing, and the three type III temperature sensors are suspended directly above the hot roll through the hot roll temperature sensor fixing frame on the roll support table, and are Horizontally spaced according to the corresponding positions of the quarter points of the hot roll axis, and symmetrically distributed with the axial center of the hot roll as the symmetrical center;
所述温度采集电路包括第一传感器控制箱、第二传感器控制箱、第三传感器控制箱、工控机及附属导线,三个Ⅰ型温度传感器的输出信号分别与第一传感器控制箱相应输入端口连接,三个Ⅱ型温度传感器及三个Ⅲ型温度传感器的输出信号分别与第二传感器控制箱相应输入端口连接,所述第一传感器控制箱、第二传感器控制箱的输出信号分别与第三传感器控制箱的输入端口连接,第三传感器控制箱的输出信号与工控机的USB口连接;The temperature acquisition circuit includes a first sensor control box, a second sensor control box, a third sensor control box, an industrial computer and an attached wire, and the output signals of the three I-type temperature sensors are respectively connected to the corresponding input ports of the first sensor control box. , the output signals of the three type II temperature sensors and the three type III temperature sensors are respectively connected with the corresponding input ports of the second sensor control box, and the output signals of the first sensor control box and the second sensor control box are respectively connected with the third sensor control box. The input port of the control box is connected, and the output signal of the third sensor control box is connected with the USB port of the industrial computer;
所述温度采集系统是以三个Ⅰ型温度传感器、三个Ⅱ型温度传感器检测带状无油润滑轴承的实时温度,以三个Ⅲ型温度传感器检测热轧辊的实时温度,并将各实时温度信号反馈至温度采集电路,由工控机对各实时温度信号进行分析比对、依据分析比对结果向工业高频炉、工业恒温炉及热轧辊发送温度调节指令。The temperature acquisition system uses three type I temperature sensors and three type II temperature sensors to detect the real-time temperature of the belt-shaped oil-free lubricated bearing, and three type III temperature sensors to detect the real-time temperature of the hot roller, and calculates the real-time temperature of each real-time temperature. The signal is fed back to the temperature acquisition circuit, and the industrial computer analyzes and compares the real-time temperature signals, and sends temperature adjustment instructions to the industrial high-frequency furnace, industrial constant temperature furnace and hot roll according to the analysis and comparison results.
本发明的结构特点也在于:The structural feature of the present invention also lies in:
所述Ⅰ型温度传感器为OPtris红外测温仪,Ⅱ型温度传感器与Ⅲ型温度传感器均为NS10非接触红外测量传感器。The type I temperature sensor is an OPtris infrared thermometer, and the type II temperature sensor and the type III temperature sensor are both NS10 non-contact infrared measurement sensors.
所述工业恒温炉位于工业高频炉正前方500mm处,所述辊子支撑台位于工业恒温炉正前方1000mm处。The industrial constant temperature furnace is located 500 mm in front of the industrial high frequency furnace, and the roller support table is located 1000 mm in front of the industrial constant temperature furnace.
与已有技术相比,本发明有益效果体现在:Compared with the prior art, the beneficial effects of the present invention are reflected in:
1、在无油润滑轴承的温度在线测量领域,由于不同材料轴承具有不同的红外线发射率以及生产过程中轴承的连续运动,导致其在线测量较为困难。本发明采用抗高频干扰温度采集单元的三个Ⅰ型温度传感器、高温温度采集单元的三个Ⅱ型温度传感器对通过工业高频炉与工业恒温炉的带状无油润滑轴承的实时温度进行采集,采用热轧辊温度采集单元的三个Ⅲ型温度传感器对热轧辊的实施温度进行采集,并由温度采集系统实时接收分析带状无油润滑轴承及热轧辊的温度信息,据此调节工业高频炉、工业恒温炉及热轧辊的工作温度,实现在线测量,以达到对带状无油润滑轴承最理想的加热及厚度控制;1. In the field of on-line temperature measurement of oil-free bearings, the on-line measurement of bearings is difficult due to the different infrared emissivity of different materials and the continuous motion of the bearings during the production process. The invention adopts three type I temperature sensors of the anti-high frequency interference temperature acquisition unit and three type II temperature sensors of the high temperature temperature acquisition unit to measure the real-time temperature of the belt-shaped oil-free lubricating bearing passing through the industrial high-frequency furnace and the industrial constant temperature furnace. Collect, use the three type III temperature sensors of the hot roll temperature acquisition unit to collect the actual temperature of the hot roll, and the temperature acquisition system receives and analyzes the temperature information of the belt-shaped oil-free lubricated bearing and the hot roll in real time, and adjusts the industrial high temperature accordingly. The working temperature of frequency furnace, industrial constant temperature furnace and hot roll can be measured online, so as to achieve the most ideal heating and thickness control of belt-shaped oil-free lubricated bearings;
2、本发明的机械结构易于安装、成本低,且采用了两种不同类型的红外温度传感器,能够利用软件调节传感器的红外线接受率,实现对不同温度、不同材料轴承的快速精准且非接触测量,可适应复杂多变、环境恶劣的工业现场,电路控制部分集成为模块化的成品,便于安装和拆卸,操作简单,成本低。2. The mechanical structure of the present invention is easy to install and low in cost, and two different types of infrared temperature sensors are used, the infrared acceptance rate of the sensor can be adjusted by software, and the fast, accurate and non-contact measurement of bearings with different temperatures and materials can be realized. , It can adapt to complex and changeable industrial sites with harsh environments. The circuit control part is integrated into a modular finished product, which is easy to install and disassemble, easy to operate and low in cost.
附图说明Description of drawings
图1是本发明温度采集系统的整体结构示意图;Fig. 1 is the overall structure schematic diagram of the temperature acquisition system of the present invention;
图2是图1中抗高频干扰温度采集单元的结构示意图;Fig. 2 is the structural representation of the anti-high frequency interference temperature acquisition unit in Fig. 1;
图3是图1中高温温度采集单元的结构示意图;Fig. 3 is the structural representation of the high temperature temperature acquisition unit in Fig. 1;
图4是图1中热轧辊温度采集单元的结构示意图;Fig. 4 is the structural representation of the hot roll temperature acquisition unit in Fig. 1;
图5是温度采集电路的结构示意图;Fig. 5 is the structural schematic diagram of the temperature acquisition circuit;
图6是温度采集软件参数设置界面示意图;Figure 6 is a schematic diagram of a temperature acquisition software parameter setting interface;
图7是温度采集软件实时数据显示界面示意图;Fig. 7 is a schematic diagram of the real-time data display interface of temperature acquisition software;
图8是温度采集软件曲线输出界面示意图;Figure 8 is a schematic diagram of the temperature acquisition software curve output interface;
图9是温度采集软件报表输出界面示意图;Figure 9 is a schematic diagram of the output interface of the temperature acquisition software report;
图10是温度采集软件数据存储界面示意图。Figure 10 is a schematic diagram of the temperature acquisition software data storage interface.
图中,1抗高频干扰温度采集单元;2高温温度采集单元;3热轧辊温度采集单元;4温度采集电路;5高频炉固定座;6工业高频炉;7高频炉温度传感器固定架;8Ⅰ型温度传感器;9长方体框架;10横杆;11第一吊杆;12第一L形板;13工业恒温炉;14恒温炉传感器固定架;15Ⅱ型温度传感器;16第二吊杆;17第二L形板;18辊子支撑台;19支撑板;20热轧辊;21热轧辊温度传感器固定架;22Ⅲ型温度传感器;23第三吊杆;24第一传感器控制箱;25第二传感器控制箱;26第三传感器控制箱;27工控机;28带状无油润滑轴承。In the figure, 1 anti-high frequency interference temperature acquisition unit; 2 high temperature temperature acquisition unit; 3 hot roll temperature acquisition unit; 4 temperature acquisition circuit; 5 high frequency furnace fixing seat; 6 industrial high frequency furnace; 7 high frequency furnace temperature sensor fixed frame; 8 type I temperature sensor; 9 cuboid frame; 10 cross bar; 11 first boom; 12 first L-shaped plate; 13 industrial constant temperature furnace; 14 constant temperature furnace sensor fixing frame; 15 type II temperature sensor; 16 second boom ; 17 second L-shaped plate; 18 roller support table; 19 support plate; 20 hot roller; 21 hot roller temperature sensor fixing frame; 22 type III temperature sensor; Sensor control box; 26 third sensor control box; 27 industrial computer; 28 belt-shaped oil-free lubricating bearings.
具体实施方式Detailed ways
为使本发明实施例的目的、技术方案和优点更加清楚,下面将结合本发明实施例,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作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。In order to make the purposes, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the embodiments of the present invention. Obviously, the described embodiments are part of the present invention. examples, but not all examples. 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.
请参照图1至图4,本实施例的应用于带状无油润滑轴承生产线的温度采集系统包括抗高频干扰温度采集单元1、高温温度采集单元2、热轧辊温度采集单元3及温度采集电路4;Referring to FIGS. 1 to 4 , the temperature acquisition system applied to the belt-shaped oil-free lubricated bearing production line in this embodiment includes an anti-high frequency interference
抗高频干扰温度采集单元1是在高频炉固定座5上分别设置工业高频炉6及位于工业高频炉6正前方的高频炉温度传感器固定架7,三个Ⅰ型温度传感器8以等间距横向间隔排列、固定安装在高频炉温度传感器固定架7上,并是分别按照带状无油润滑轴承28的中心位置、及两侧边缘横向向内间距50mm的位置,一一对应地悬吊于带状无油润滑轴承28正上方;The anti-high-frequency interference
高温温度采集单元2是在工业高频炉6正前方设置工业恒温炉13,在工业恒温炉13的前端设置恒温炉温度传感器,三个Ⅰ型温度传感器15与三个Ⅰ型温度传感器8一一对应前后向对齐布设、固定安装在恒温炉传感器固定架14上,悬吊于带状无油润滑轴承28正上方;The high temperature
热轧辊温度采集单元3是在工业恒温炉13正前方设置辊子支撑台18,辊子支撑台18是以设于下端部的支撑板19承托带状无油润滑轴承28,以设于支撑板19正上方、能够绕中轴回转的热轧辊20形成对带状无油润滑轴承28的辊压,三个Ⅲ型温度传感器22通过辊子支撑台18上的热轧辊温度传感器固定架21悬吊于热轧辊20正上方,并是按照热轧辊20轴线四等分点的对应位置横向间隔、且以热轧辊20的轴向中心为对称中心呈对称分布;The hot roll
请参照图5,温度采集电路4包括第一传感器控制箱24、第二传感器控制箱25、第三传感器控制箱26、工控机27及附属导线;抗高频干扰温度采集单元1的三个Ⅰ型温度传感器8通过双层屏蔽线将采集到的温度数据传输到第一传感器控制箱24中,用对应的双层屏蔽线将温度传感器与相对应的数据端口连接,经过第一传感器控制箱24进行信号初步处理,然后从其输出端口经双层屏蔽线传输到第三传感器控制箱26的输入端口中;Please refer to FIG. 5 , the temperature acquisition circuit 4 includes a first
同样的,用对应的双层屏蔽线分别将三个Ⅰ型温度传感器15及三个Ⅲ型温度传感器22与第二传感器控制箱25相对应的数据端口连接,经第二传感器控制箱25对高温温度采集单元2及热轧辊温度采集单元3中的温度传感器采集到的温度数据信号初步处理,然后从其输出端口经双层屏蔽线传输到第三传感器控制箱26的输入端口中;Similarly, connect the three type
上述各传感器控制箱内主要部件为传感器对应的信号处理盒及RS-485集线器;各温度传感器采集到的初始信号经过处理盒信号处理后可得到RS-485信号,最终由集线器将9路RS-485信号集成到1路RS-485信号,最后由RS-485转USB模块将该信号处理为工控机27可用的USB信号。The main components in the above-mentioned sensor control boxes are the signal processing boxes corresponding to the sensors and the RS-485 hub; the initial signals collected by each temperature sensor can be processed by the processing boxes to obtain RS-485 signals, and finally the hub will convert the 9 RS-485 signals. The 485 signal is integrated into one RS-485 signal, and finally the RS-485 to USB module processes the signal into a USB signal available to the
具有上述结构的温度采集系统是以三个Ⅰ型温度传感器8、三个Ⅰ型温度传感器15检测带状无油润滑轴承28的实时温度,以三个Ⅲ型温度传感器22检测热轧辊20的实时温度,并将各实时温度信号反馈至温度采集电路4,由工控机27对各实时温度信号进行分析比对、依据分析比对结果向工业高频炉6、工业恒温炉13及热轧辊20发送温度调节指令。The temperature acquisition system with the above structure uses three type
具体的,工业恒温炉13位于工业高频炉6正前方500mm处,辊子支撑台18位于工业恒温炉13正前方1000mm处。Specifically, the industrial
高频炉温度传感器固定架7是在工业高频炉6的前端设置长方体框架9,长方体框架9顶部的横杆10下端安装三根第一吊杆11,三个Ⅰ型温度传感器8安装在三根第一吊杆11杆端的第一L形板12上;The high-frequency furnace temperature sensor fixing frame 7 is provided with a
恒温炉传感器固定架14呈框状、安装在工业恒温炉13的顶端,其下端安装三根第二吊杆16,三个Ⅰ型温度传感器15安装在三根第二吊杆16杆端的第二L形板17上;The constant temperature furnace
热轧辊温度传感器固定架21安装在辊子支撑台18的顶部,其下端安装三根第三吊杆23,在第三吊杆23的杆端安装Ⅲ型温度传感器22。The hot roll temperature
为便于更好地适应工业现场需求,上述用于固定悬吊各传感器的机械构件之间可采用可拆卸式连接形式,使传感器的高度和角度可调节,这一部分对于本领域普通技术人员而言是易于理解并容易实现的,此处不做赘述。In order to better adapt to the needs of the industrial site, the above-mentioned mechanical components for fixing and suspending each sensor can adopt a detachable connection form, so that the height and angle of the sensor can be adjusted. This part is for those of ordinary skill in the art. It is easy to understand and easy to implement, and will not be repeated here.
本实施例中,作为一个优选的方案:In this embodiment, as a preferred solution:
高频炉工作时会产生大量的高频辐射,高频辐射对温度测量的精度影响非常大,会严重影响测量数据的真实性,本实施例优选Ⅰ型温度传感器8选用德国产的OPtris红外测温仪,该传感器可以对高频辐射有很好的克制作用,精度可达0.01℃,在近距离有高频辐射时能够输出线性好、精度高、稳定性好的测量数据;A large amount of high-frequency radiation will be generated when the high-frequency furnace is working, and the high-frequency radiation will have a great impact on the accuracy of temperature measurement, which will seriously affect the authenticity of the measurement data. In this embodiment, the preferred type
工业恒温炉13的保温效果相对较差,在工业生产时会有严重的能量遗漏现象,因此该处温度传感器需克服外界泄露的能量对传感器采集到信号的影响,本实施例优选Ⅰ型温度传感器15选用台湾产NS10非接触红外测量传感器,该传感器的温度材料模块能够克服外界泄露能量的影响,并且具有良好的线性、稳定性,精度可到0.1℃,能够满足工业现场的要求;The thermal insulation effect of the industrial
热轧辊20内部可加热且其工作温度较高,该辊子表面非常光滑且要测量其在转动过程中的滚子表面的温度,因此所选温度传感器应具有快速测量、能实现高温测量、适应光滑材料发射率等特点,本实施例优选Ⅲ型温度传感器22选用台湾产NS10非接触红外测量传感器,该传感器响应时间为150ms,测温范围0-500℃,能够调节发射率,精度达0.1℃,能够满足工业现场要求。The inside of the hot roller 20 can be heated and its working temperature is high. The surface of the roller is very smooth and the temperature of the roller surface during the rotation should be measured. Therefore, the selected temperature sensor should have fast measurement, can achieve high temperature measurement, and be suitable for smoothness. In this embodiment, the type III temperature sensor 22 is preferably selected from the NS10 non-contact infrared measurement sensor made in Taiwan. The response time of the sensor is 150ms, the temperature measurement range is 0-500°C, and the emissivity can be adjusted with an accuracy of 0.1°C. Can meet industrial site requirements.
带状无油润滑轴承28生产时,需要对较厚的带状无油润滑轴承28进行辊压,将其压成所需厚度,辊压过程中需要对其进行精准加热,精准加热过程分为三个步骤:When the belt-shaped oil-
a、先将带状无油润滑轴承28通过工业高频炉6进行预热;a. First, preheat the belt-shaped oil-
b、然后经过工业恒温炉13进行加热和保温,使带状无油润滑轴承28温度恒定;b. Then heating and heat preservation are carried out through the industrial
c、最后经过此时与带状无油润滑轴承28相同温度的热轧辊20进行辊压,使其达到理想厚度。c. Finally, rolling through the hot roll 20 with the same temperature as the belt-shaped oil-
因此,本发明实施例设计的温度采集系统,其目的在于,实时读取带状无油润滑轴承28及热轧辊20的温度,并通过该温度信息来调节工业高频炉6、工业恒温炉13和热轧辊20的工作温度,以达到对带状无油润滑轴承28最理想的加热及厚度控制。Therefore, the purpose of the temperature acquisition system designed in the embodiment of the present invention is to read the temperature of the belt-shaped oil-free
本实施例温度采集系统在具体实施时,可利用温度采集软件配合操控,温度采集软件包括但不限于以下5项功能:参数设置、实时数据显示、曲线输出、报表输出、数据存储(如图6-图10所示,图示为作业前的软件界面),其操作过程如下:During the specific implementation of the temperature acquisition system in this embodiment, the temperature acquisition software can be used to cooperate with the control. The temperature acquisition software includes but is not limited to the following five functions: parameter setting, real-time data display, curve output, report output, and data storage (as shown in Figure 6 ). - As shown in Figure 10, the picture shows the software interface before the operation), and the operation process is as follows:
1、分别打开第一传感器控制箱24、第二传感器控制箱25、第三传感器控制箱26,然后打开工控机27,找到工控机27中相应的温度测量的快捷方式,打开温度采集软件;1. Open the first
2、首先进行参数设置:第一步“打开串口1”;第二步点击“进行标定”按钮;第三步点击“开始测量”按钮;由于带状无油润滑轴承28卷的材质有所差别,其发射率也会不同,因此在测量之前需要对其发射率进行标定,此时点击“进行标定”按钮,设备即可进行自动标定其不同材质的发射率;2. First set the parameters: the first step is "open
3、参数设置结束后即可得到材料此时真实的温度,然后分别打开工业高频炉6、工业恒温炉13、并启动热轧辊20使其转动起来;3. After the parameter setting is completed, the real temperature of the material can be obtained at this time, and then the industrial high-
4、打开温度采集软件的实时数据界面,即可看到9个温度传感器所测量的温度数据,也可打开曲线输出界面对温度变化曲线进行查看,此时可根据显示温度来调节工业高频炉6、工业恒温炉13、热轧辊20的温度,以满足不同材质的带状无油润滑轴承28对温度的要求。4. Open the real-time data interface of the temperature acquisition software, you can see the temperature data measured by 9 temperature sensors, and you can also open the curve output interface to view the temperature change curve. At this time, the industrial high-frequency furnace can be adjusted according to the displayed temperature. 6. The temperature of the industrial
温度采集软件中的报表输出截面用于输出相应的Excel文档对温度进行记录,并可方便历史温度的查看及打印;软件中的数据存储界面,可用于选择9个传感器中单独的一个进行数据的放大查看与存储,可得到更加精准的温度数据;最后关闭时,可按照上述步骤1-4逆向操作进行。The report output section in the temperature acquisition software is used to output the corresponding Excel document to record the temperature, and it is convenient to view and print the historical temperature; the data storage interface in the software can be used to select a single one of the 9 sensors for data recording. Enlarging, viewing and storing, you can get more accurate temperature data; when closing, you can reverse the operation according to the above steps 1-4.
尽管已经示出和描述了本发明的实施例,本领域的普通技术人员可以理解:在不脱离本发明的原理和宗旨的情况下可以对这些实施例进行多种变化、修改、替换和变型,本发明的范围由权利要求及其等同物限定。Although embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and alterations can be made in these embodiments without departing from the principles and spirit of the invention, The scope of the invention is defined by the claims and their equivalents.
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810877554.8ACN108981926B (en) | 2018-08-03 | 2018-08-03 | Temperature acquisition system applied to belt-shaped oil-free lubrication bearing production line |
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201810877554.8ACN108981926B (en) | 2018-08-03 | 2018-08-03 | Temperature acquisition system applied to belt-shaped oil-free lubrication bearing production line |
| Publication Number | Publication Date |
|---|---|
| CN108981926A CN108981926A (en) | 2018-12-11 |
| CN108981926Btrue CN108981926B (en) | 2020-03-17 |
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201810877554.8AActiveCN108981926B (en) | 2018-08-03 | 2018-08-03 | Temperature acquisition system applied to belt-shaped oil-free lubrication bearing production line |
| Country | Link |
|---|---|
| CN (1) | CN108981926B (en) |
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| CN103240275A (en)* | 2013-05-14 | 2013-08-14 | 吉林大学 | On-line heating device and heating method of magnesium alloy sheet warm rolling rollers |
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| JP2009078289A (en)* | 2007-09-26 | 2009-04-16 | Jfe Steel Kk | Defect detection method of hot-rolled metal strip using near-infrared camera in hot rolling, and manufacturing method of hot-rolled metal strip using the same |
| Publication number | Priority date | Publication date | Assignee | Title |
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| US4439049A (en)* | 1981-02-02 | 1984-03-27 | Estel Hoogovens B.V. | Temperature scanner |
| CN103240275A (en)* | 2013-05-14 | 2013-08-14 | 吉林大学 | On-line heating device and heating method of magnesium alloy sheet warm rolling rollers |
| Publication number | Publication date |
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| CN108981926A (en) | 2018-12-11 |
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