GBLM-04激光位移传感器1

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激光位移传感器功能及相关参数介绍

激光位移传感器，就是以微米（μm）为单位，测量物体的高度、厚度、距离等的传感器，用来检测物体的「有/无」而位移传感器则用于测量「物体移动了几mm的距离」，因此使用较为广泛。

由于这一传感器具备多种优势，从而其具有的功能也较为多样化：
1、量程可设置，至大40 米
2、分辨率1mm，精度1.5mm+d*万分之5
3、数码管实时显示测量结果
4、LED 状态显示
5、电压模拟输出
6、越限继电器输出（支持NPN/PNP）
7、测量距离矫正
8、基本参数设定
9、RS485 接口，支持Modbus RTU 协议
引出线介绍
①黑色，GND；②白色，+24VDC；③蓝色，RS485 A；④紫色，RS485 B；
⑤灰色，4mA~20mA 电流输出
主要参数指标
表1 主要参数指标
以上就是相关内容的介绍，希望对大家了解这一问题会有更多的帮助，同时如有这方面的兴趣或需求，可以咨询一下南京凯基特电气有限公司。

激光位移传感器技术指标

激光位移传感器技术指标嘿，朋友们！今天咱来聊聊激光位移传感器那些事儿。

你说这激光位移传感器啊，就像是我们生活中的一个小魔术棒。

它能超级精确地测量物体的位移，那精度，简直了！就好比你要量一个小芝麻的移动，它都能给你分得清清楚楚。

咱先说说它的测量范围吧。

这就好像是你跑步的赛道，有长有短。

不同的激光位移传感器，它能测量的距离可不一样。

有的能测个几米远，有的那可是能“看”到好几十米开外呢！你想想，这要是在大工程里，能发挥多大作用呀！还有那分辨率，可别小瞧了这一点。

它就像是你手机屏幕的清晰度，分辨率越高，看到的细节就越多。

激光位移传感器的分辨率高了，那测量出来的结果就更准确，误差就更小啦。

你说要是分辨率不行，那不就跟戴了个模糊的眼镜一样，啥都看不清嘛！响应时间也很重要哦！这就跟你反应速度似的。

如果响应时间太长，等它测出来，黄花菜都凉了。

但是好的激光位移传感器，那响应速度，快得让你惊讶！再说说线性度吧，这就好像是一条直直的路。

如果线性度不好，那这条路就弯弯曲曲的，测量结果不就乱七八糟啦？咱可不能要这样的呀！那稳定性呢，就像是一个可靠的朋友。

它得一直稳稳当当的，不能今天测的准，明天就不行了。

这要是不稳定，那多让人头疼呀！哎呀，你说这激光位移传感器是不是很神奇？它在好多领域都大显身手呢！像工业生产啦，科研啦，到处都有它的身影。

咱就说在工业生产里，它能精准地测量零件的尺寸，保证产品的质量。

这就好比是一个严格的质检员，不放过任何一个小瑕疵。

在科研中呢，它能帮助科学家们获得更准确的数据，推动科技的进步。

这不就是给科研加了一把力嘛！你说这么厉害的东西，咱能不好好了解了解吗？咱得知道怎么挑，怎么用，才能让它发挥最大的作用呀！所以啊，大家可别小瞧了这小小的激光位移传感器，它背后的学问可大着呢！它就是那个默默工作，却能带来巨大贡献的小能手。

怎么样，是不是对激光位移传感器有了更深的认识啦？。

激光位移传感器快速入门指南说明书

Quick Start GuideLaser displacement sensor that supports IO-Link communication with analog and discrete (switched) outputs.This guide is designed to help you set up and install the L-GAGE LM Analog/Discrete Laser Sensor. For complete information on programming, performance, troubleshooting, dimensions, and accessories, please refer to the Instruction Manual at . Search for p/n 205812 to view the manual. Use of this document assumes familiarity with pertinentindustry standards and practices.WARNING:•Do not use this device for personnel protection•Using this device for personnel protection could result in serious injury or death.•This device does not include the self-checking redundant circuitry necessary to allow its use inpersonnel safety applications. A device failure or malfunction can cause either an energized (on) or de-energized (off) output condition.Features and Indicators132Three LED indicators provide ongoing indication of the sensing status.1. Analog Output LED IndicatorSolid Amber = Displayed distance is within the taught analog output window Off = Displayed distance is outside the taught analog output window 2. Power LED IndicatorSolid Green = Normal operation, power On and laser OnFlashing Green (1 Hz) = Power On and laser Off (laser enable mode)3. Discrete Output LED IndicatorSolid Amber = Discrete Output is On Off = Discrete Output is OffLaser Description and Safety InformationCAUTION:•Return defective units to the manufacturer.•Use of controls or adjustments or performance of procedures other than those specified herein mayresult in hazardous radiation exposure.•Do not attempt to disassemble this sensor for repair. A defective unit must be returned to themanufacturer.Class 2 Laser Models (LM150 Models)CAUTION:•Never stare directly into the sensor lens.•Laser light can damage your eyes.•Avoid placing any mirror-like object in the beam. Never use a mirror as a retroreflective target.For Safe Laser Use - Class 2 Lasers•Do not stare at the laser.•Do not point the laser at a person’s eye.•Mount open laser beam paths either above or below eye level, where practical.•Terminate the beam emitted by the laser product at the end of its useful path.Reference IEC 60825-1:2007, Section 8.2.L-GAGE ® LM Series Laser SensorOriginal Document 205811 Rev. D27 July 2020205811Class 2 LasersClass 2 lasers are lasers that emit visible radiation in the wavelength range from 400 nm to 700 nm, where eye protection is normally afforded by aversion responses, including the blink reflex. This reaction may be expected to provide adequate protection under reasonably foreseeable conditions of operation, including the use of optical instruments for intrabeam viewing.LASER LIGHTDO NOT STARE INTO BEAMCLASS 2 LASER PRODUCTAcc to IEC 60825-1:2007.λ=640-670nm; P=0.45mWPW: 45-1,750msComplies with 21 CFR 1040.10 and 1040.11Except for deviations pursuant to laser noticeNo. 50, Dated June 24, 2007.Figure 1. FDA (CDRH) warning label (Class 2)Class 2 Laser Safety NotesLow-power lasers are, by definition, incapable of causing eye injury within the duration of ablink (aversion response) of 0.25 seconds. They also must emit only visible wavelengths(400 to 700 nm). Therefore, an ocular hazard may exist only if individuals overcome theirnatural aversion to bright light and stare directly into the laser beam.Class 1 Laser Models (LM80 Models)Class 1 lasers are lasers that are safe under reasonably foreseeable conditions ofoperation, including the use of optical instruments for intrabeam viewing.Figure 2. FDA (CDRH) warning label (Class 1) Laser wavelength: 655 nm Output: < 0.33 mW Pulse Duration: 45 µs to 1750 µsInstallation InstructionsSensor InstallationNote: Handle the sensor with care during installation and operation. Sensor windows soiled by fingerprints,dust, water, oil, etc. may create stray light that may degrade the peak performance of the sensor. Blow thewindow clear using filtered, compressed air, then clean as necessary using 70% isopropyl alcohol and cottonswabs or water and a soft cloth.Install the Safety LabelThe safety label must be installed on or near the LM sensors.Note:Position the label on the cable or near the sensor in a location that has minimal chemical exposure.Figure 3. Typical installation; other mounting options are possible.1.Remove the protective cover from the adhesive on the label.2.Wrap the label around the LM cable, as shown.3.Press the two halves of the label together. - Tel: + 1 888 373 6767P/N 205811 Rev. DSensor OrientationCorrect sensor-to-object orientation is important to ensure proper sensing. See the following figures for examples of correct and incorrect sensor-to-object orientation as certain placements may pose problems for sensing distances.Figure 4. Orientation by a wall IncorrectCorrect Figure 5. Orientation in an openingIncorrectCorrectFigure 6. Orientation for a turning objectIncorrectCorrectFigure 7. Orientation for a height difference IncorrectCorrectFigure 8. Orientation for a color or luster difference Figure 9. Orientation for a highly reflective targetApplying tilt to sensor may improve performance on reflective targets. The direction and magnitude of the tilt depends on the application, but a 15° tilt is often sufficient.Mount the Device1.If a bracket is needed, mount the device onto the bracket.2.Mount the device (or the device and the bracket) to the machine or equipment at the desired location. Do not tighten themounting screws at this time.3.Check the device alignment.4.Tighten the mounting screws to secure the device (or the device and the bracket) in the aligned position.Wiring Diagrams+–* Push-Pull output. User-configurable PNP/NPN setting.*Key 1 = Brown 2 = White 3 = Blue 4 = Black 5 = Gray+–* Push-Pull output. User-configurable PNP/NPN setting.*The bare shield wire is connected internally to the sensor housing and should be connected as follows:•If the sensor housing is mounted so that it is in continuity with both the machine frame and earth ground, connect the barewire (also) to earth ground.•If the sensor housing is mounted so that it is insulated from the machine frame and you are experiencing noise, connectingthe bare wire to -V dc (together with the blue wire), may help.•If the sensor is mounted so that it is in continuity with the machine frame, but not with earth ground, do not connect thebare wire (e.g. cut off the bare wire).P/N 205811 Rev. D - Tel: + 1 888 373 67673Configuration InstructionsSensor ProgrammingProgram the sensor using the buttons on the RSD1 remote sensor display accessory, via IO-Link, or the remote input (limited programming options).If you are using the RSD1 for programming, from Run mode, use the buttons to access the Quick Menu and the Sensor Menu. See the instruction manual (p/n 205812) for more information on the options available from each menu. For TEACH options, follow the TEACH instructions in the instruction manual.In addition to programming the sensor, use the remote input to disable the buttons for security, preventing unauthorized or accidental programming changes. See the instruction manual for more information.from Run Mode> 4 sec.Access Sensor Menu Access RSD1 MenuFigure 10. Accessing the MenusRemote Display Buttons and the LMUse the RSD1 buttons Down , Up , Enter , and Escape to view or change RSD1 settings and information and to program a connected sensor.Down and Up Buttons Press Down and Up to:•Access the Quick Menu from Run mode •Navigate the menu systems •Change programming settings•Change individual digit values in distance based settings When navigating the menu systems, the menu items loop.Press Down and Up to change setting values. Press and hold the buttons to cycle through numeric values. After changing a setting value, the value slowly flashes until the change is saved using the Enter button.Enter Button Press Enter to:•Access the Sensor Menu from Run mode •Access the submenus•Move right one digit in distance based settings •Save changesIn the RSD1 Menu, a check mark in the lower right corner of the display indicates that pressing Enter accesses a submenu.Press Enter to save changes. New values flash rapidly, and the sensor returns to the parent menu. - Tel: + 1 888 373 6767P/N 205811 Rev. DEscape ButtonPress and hold Escape for 4 seconds to:•Access the RSD1 Menu while in Run modePress Escape to:•Leave the current menu and return to the parent menuImportant: Pressing Escape discards any unsaved programming changes.In the RSD1 Menu, a return arrow in the upper left corner of the display indicates that pressing Escape returns to the parent menu.Press and hold Escape for 2 seconds to return to Run mode from the RSD1 Menu.Quick MenuThe sensor includes a Quick Menu with easy access to view and change the analog and discrete output switch points.Access the Quick Menu by pressing Down or Up from Run mode. When in the Quick Menu, the current distance measurement displays on the first line and the menu name and the analog value alternate on the second line of the display. Press Enter to access the switch points.Press Down or Up to change the switch point to the desired value.Press Enter to save the new value and return to the Quick Menu.* In Setpoint mode, SPt1 Pt is replaced by SPt and SPt2 Pt is not available.In Dual mode, SPt1 is replaced by DualSPt and SPt2 Pt is not available.Sensor Menu (MENU)Access the Sensor Menu by pressing Enter from Run mode. The Sensor Menu is also accessible from the Quick Menu: navigate to MENU and press Enter. The Sensor Menu includes several submenus that provide access to view and change sensor settings and to view sensor information.P/N 205811 Rev. D - Tel: + 1 888 373 67675SensorMenu Full MapFrom Run mode, press Enter to enter the top-level menu system (A_OUT, D_OUT, INPUT, MEASURE, etc).Top Menu* Factory default setting - Tel: + 1 888 373 6767P/N 205811 Rev. DSpecificationsSupply Voltage (Vcc)10 V dc to 30 V dcUse only with a suitable Class 2 power supply (North America) Power and Current Consumption, exclusive of loadNormal Run Mode: 1.5 W, Current consumption < 62 mA at 24 V dc Supply Protection CircuitryProtected against reverse polarity and transient overvoltages Ambient Light Immunity10,000 luxConstructionHousing: stainless steelWindow: acrylic Sensing BeamVisible red, 655 nmSensing RangeLM80: 40 to 80 mmLM150: 50 mm to 150 mmDelay at Power Up2.1 sMeasurement/Output Rate0.25 ms to 4 ms; user selectable from the Speed menu Output ConfigurationAnalog output: 4 to 20 mA (LM...I Models) or 0 to 10 V DC (LM...U Models)Discrete output: Push/Pull, IO-LinkOutput RatingsDiscrete Output: 50 mA maximum (protected against continuous overload and short circuit)Output saturation voltage (PNP): < 3 V at 50 mAOutput saturation voltage (NPN): < 2.5 V at 50 mAAnalog current output (LM...I Models): 500 Ω maximumAnalog voltage output (LM...U Models): 1000 Ω minimum Maximum Torque1.5 N·mRemote InputAllowable Input Voltage Range: 0 to VccActive Low (internal weak pullup—sinking current):High State: > 3.6 VLow State: < 2.4 VActive High (internal weak pulldown—sourcing current): High State: > Vcc - 2.9 VLow State: < Vcc - 4.6 VMinimum Window Size, Analog and DiscreteLM80:Analog: 1 mmDiscrete: 0.024 mmLM150:Analog: 1 mmDiscrete: 0.1 mm Analog ResolutionLM80: 0.002 mmLM150: 0.004 mmRepeatabilityLM80: ± 0.001 mm1LM150: ± 0.002 mm 2Analog and IO-Link LinearityLM80:40–70 mm: ± 0.02 mm70–80 mm: ± 0.03 mmLM150:50–120 mm: ± 0.06 mm120–150 mm: ± 0.07 mmIO-Link Accuracy3LM80: ± 0.175 mmLM150: ± 0.2 mmTemperature Effect, TypicalLM80: ± 0.006 mm/°CLM150: ± 0.008 mm/°CResponse TimeTotal response speed varies from 0.5 ms to 2048 ms, depending on base measurement rate and averaging settings.See Instruction Manual for more information.Minimum Object SeparationLM80:Uniform targets (6% to 90% reflectivity) 40–70 mm: 0.04 mmUniform targets (6% to 90% reflectivity) 70–80 mm: 0.06 mmNon-uniform targets (6% to 90% reflectivity): 0.4 mmLM150:Uniform targets (6% to 90% reflectivity) 50–120 mm: 0.120 mmUniform targets (6% to 90% reflectivity) 120–150 mm: 0.140 mm Non-uniform targets (6% to 90% reflectivity): 0.8 mm Environmental RatingIEC IP67Operating Conditions–10 °C to +55 °C (+14 °F to +131 °F)90% at +55 °C maximum relative humidity (non-condensing) Storage Temperature–35 °C to 60 °C (–31°F to 140 °F)Boresighting± 0.70 mm at 40 mm± 0.87 mm at 50 mm± 1.40 mm at 80 mm± 2.62 mm at 150 mmVibration/Mechanical ShockMeets IEC 60947-5-2 (10 to 60 Hz max., double amplitude 0.06 in, max acceleration 10G. 30G 11 ms duration, half sine wave) Application NoteFor optimum performance, allow 10 minutes for the sensor to warm upCertificationsUL Type 1with 128× averaging. With 1× averaging, repeatability of ± 0.004 mm from 40 to 80 mm.with 128× averaging. With 1× averaging, repeatability of ± 0.005 mm from 50 to 120 mm and ± 0.010 mm from 120 to 150 mm.3The accuracy specification refers to the possible absolute offset when installing a sensor without taking any reference measurement.Linearity is the more relevant specification for most applications.P/N 205811 Rev. D - Tel: + 1 888 373 67677Typical Beam Spot Size4Required Overcurrent ProtectionWARNING: Electrical connections mustbe made by qualified personnel inaccordance with local and nationalelectrical codes and regulations.Overcurrent protection is required to be provided by endproduct application per the supplied table.Overcurrent protection may be provided with external fusing orvia Current Limiting, Class 2 Power Supply.Supply wiring leads < 24 AWG shall not be spliced.For additional product support, go to.FCC Part 15 and CAN ICES-3 (B)/NMB-3(B)This device complies with part 15 of the FCC Rules and CAN ICES-3 (B)/NMB-3(B). Operation is subject to the following two conditions:1.This device may not cause harmful interference, and2.This device must accept any interference received, including interference that may cause undesired operation.This equipment has been tested and found to comply with the limits for a Class B digital device, pursuant to part 15 of the FCC Rules and CAN ICES-3 (B)/NMB-3(B). These limits are designed to provide reasonable protection against harmful interference in a residential installation. This equipment generates, uses and can radiate radio frequency energy and, if not installed and used in accordance with the instructions, may cause harmful interference to radio communications. However, there is no guarantee that interference will not occur in a particular installation. If this equipment does cause harmful interference to radio or television reception, which can be determined by turning the equipment off and on, the user is encouraged to try to correct the interference by one or more of the following measures:•Reorient or relocate the receiving antenna.•Increase the separation between the equipment and receiver.•Connect the equipment into an outlet on a circuit different from that to which the receiver is connected.•Consult the manufacturer.Banner Engineering Corp. Limited WarrantyBanner Engineering Corp. warrants its products to be free from defects in material and workmanship for one year following the date of shipment. Banner Engineering Corp. will repair or replace, free of charge, any product of its manufacture which, at the time it is returned to the factory, is found to have been defective during the warranty period. This warranty does not cover damage or liability for misuse, abuse, or the improper application or installation of the Banner product.THIS LIMITED WARRANTY IS EXCLUSIVE AND IN LIEU OF ALL OTHER WARRANTIES WHETHER EXPRESS OR IMPLIED (INCLUDING, WITHOUT LIMITATION, ANY WARRANTY OF MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE), AND WHETHER ARISING UNDER COURSE OF PERFORMANCE, COURSE OF DEALING OR TRADE USAGE. This Warranty is exclusive and limited to repair or, at the discretion of Banner Engineering Corp., replacement. IN NO EVENT SHALL BANNER ENGINEERING CORP. BE LIABLE TO BUYER OR ANY OTHER PERSON OR ENTITY FOR ANY EXTRA COSTS, EXPENSES, LOSSES, LOSS OF PROFITS, OR ANY INCIDENTAL, CONSEQUENTIAL OR SPECIAL DAMAGES RESULTING FROM ANY PRODUCT DEFECT OR FROM THE USE OR INABILITY TO USE THE PRODUCT, WHETHER ARISING IN CONTRACT OR WARRANTY, STATUTE, TORT, STRICT LIABILITY, NEGLIGENCE, OR OTHERWISE.Banner Engineering Corp. reserves the right to change, modify or improve the design of the product without assuming any obligations or liabilities relating to any product previously manufactured by Banner Engineering Corp. Any misuse, abuse, or improper application or installation of this product or use of the product for personal protection applications when the product is identified as not intended for such purposes will void the product warranty. Any modifications to this product without prior express approval by Banner Engineering Corp will void the product warranties. All specifications published in this document are subject to change; Banner reserves the right to modify product specifications or update documentation at any time. Specifications and product information in English supersede that which is provided in any other language. For the most recent version of any documentation, refer to: .For patent information, see /patents.© Banner Engineering Corp. All rights reserved。

激光位移传感器原理

激光位移传感器原理激光位移传感器是一种利用激光技术来测量目标物体位置的传感器。

它通过测量激光束和目标物体之间的距离来实现精准的位移测量，具有高精度、快速响应、非接触测量等优点，被广泛应用于工业自动化、机器人技术、精密加工等领域。

本文将介绍激光位移传感器的原理及其工作过程。

激光位移传感器的原理是基于激光测距技术，利用激光束与目标物体之间的反射光信号来测量目标物体的位移。

其工作原理主要包括激光发射、光束聚焦、反射光接收和信号处理等步骤。

首先，激光位移传感器通过激光发射器发射一束激光，激光束经过透镜的聚焦作用后，形成一个非常细小的光斑，然后照射到目标物体上。

当激光束照射到目标物体表面时，会产生反射光，反射光经过透镜再次聚焦后，进入光电探测器进行接收。

光电探测器接收到反射光信号后，将其转换成电信号，并经过信号处理电路进行放大、滤波和数字化处理，最终得到目标物体与传感器之间的距离信息。

激光位移传感器通过测量激光束与目标物体之间的距离，可以实现对目标物体位置的高精度测量。

激光位移传感器的工作过程非常简单，但却能够实现高精度的位移测量。

其原理是基于激光的直线传播特性和反射光的接收特性，利用光电探测器将反射光信号转换成电信号，并进行信号处理得到目标物体的位移信息。

由于激光束具有高能量密度和方向性好的特点，因此激光位移传感器具有快速响应、高精度、非接触测量等优点，适用于对目标物体位置要求较高的场合。

总之，激光位移传感器是一种利用激光技术实现位移测量的高精度传感器，其原理是基于激光的直线传播和反射光的接收特性，通过测量激光束与目标物体之间的距离来实现位移测量。

激光位移传感器具有快速响应、高精度、非接触测量等优点，被广泛应用于工业自动化、机器人技术、精密加工等领域。

希望本文能够帮助读者更好地理解激光位移传感器的原理及其工作过程。

激光位移传感器IL_IM使用说明书

ᇣᖗ 表示若不遵守该注意事项，可能导致人员遭受轻微或中度的伤害。
⊼ᛣ
表示若不遵守该注意事项，将导致本产品损害以及财产损失。
䞡㽕
表示使用过程中，必须遵守的注意事项和使用限制等。
㽕⚍
表示正确使用本产品所必须注意的其它信息。
খ㗗
表示为了更好地理解和使用有关信息所给出的一些小诀窍。
IL 系列产品的安全信息
IL Series-IM_C
2
安装放大器
DIN 导轨安装型，主单元 (IL-1000)
将主机壳底部的卡爪与 DIN 导轨对齐。在按照箭
(3)
头（1）方向推动主机壳的同时，沿着箭头（2）
的方向倾斜放大器。
取下放大器，沿着箭头（3）的方向抬起主机壳，
(2)
(1)
同时按照箭头（1）的方向推动主机壳。
• IL-S025: 25 mm ±0.25 mm • IL-030: 30 mm ±0.25 mm • IL-S065/IL-065: 65 mm ±0.5 mm
• IL-100: 100 mm ±1 mm • IL-300: 300 mm ±7 mm • IL-600: 600 mm ±20 mm
• 本产品可在海拔 2000 m 及 2000 m 以下使用。 • 只能在室内使用。 • 在安装传感头电缆以及传感头连接电缆时，必须注意避免机械损伤（例如绝缘层破
裂等）。 • 放大器单元的电源电缆和 I/O 电缆只能在内部接线。 • 以下电缆的额定电压为 30 V：
- 传感头电缆 - 传感头连接电缆 - 放大器单元的电源电缆和 I/O 电缆 • 电缆安装时，应当远离 30 V 以上的电路。
• 适用标准： CAN/CSA C22.2 No.61010-1 UL61010-1

激光位移传感器操作手册说明书

激光位移传感器操作手册V3.0目录第1章：产品概要......................................................................... 1-11.1 包装内容 ......................................................................................... 1-11.2 各部件名称及功能........................................................................... 1-21.3 安装................................................................................................. 1-3 第2章：设定与测量 ..................................................................... 2-1 第3章：软件操作......................................................................... 3-13.1 通信设置 ......................................................................................... 3-13.2 位置读取与归零设定 ....................................................................... 3-2 第4章：通讯指令......................................................................... 4-14.1 通讯参数列表 .................................................................................. 4-14.2 通讯协议 ......................................................................................... 4-4 第5章：产品规格......................................................................... 5-1 第6章：安全注意事项.................................................................. 6-1 第7章：保固 ................................................................................ 7-1版本更新历程激光位移计操作手册V3.0版本更新历程版本更新日期V1.0 第一版发行2018/09/03V2.0 新增「反应速度设定」与「中值滤波器设定」功能说明与通讯地址设定方式。

激光位移传感器的研究与应用

激光位移传感器的研究与应用摘要激光位移传感器，凭借其高精度测量与非接触操作的独特优势，在工业自动化及科学研究的广阔舞台占据了举足轻重的地位。

本研究深入剖析了激光位移传感器的工作原理、关键技术要素，及其在多领域应用的实例，并对该传感器的性能进行了全面审视与优化探索。

研究证实，该技术能够精准检测细微位移变化，为工业生产线的质量监控、物料精确定位，以及科研中微观形变的精密测量等提供了坚实的数据保障。

在技术升级的努力下，通过激光源的改良、光学系统优化及信号处理技术的增强，传感器的精确度与稳定性均实现了显著提升。

此外，激光位移传感器在智能机器人、交通监控等新兴应用领域的潜力逐渐显现，预示着其应用范围的不断拓展。

随着技术创新步伐的加快，激光位移传感器无疑将在更多领域绽放光彩，为相关行业的发展注入强劲动力。

关键词：激光位移传感器；高精度测量；非接触式测量；工业自动化；科研实验；性能优化；新兴领域应用目录摘要 (1)第一章引言 (3)1.1 激光位移传感器的研究背景 (3)1.2 激光位移传感器的应用意义 (4)1.3 当前研究现状及研究方法 (5)第二章激光位移传感器原理与技术 (7)2.1 激光测距原理 (7)2.2 关键技术分析 (8)2.3 传感器特点 (9)第三章激光位移传感器的应用实例 (11)3.1 工业自动化领域的应用 (11)3.2 科研实验领域的应用 (12)3.3 其他领域的应用 (12)第四章激光位移传感器的性能评估与优化 (14)4.1 性能评估指标 (14)4.2 性能优化方法 (14)第五章激光位移传感器市场前景与挑战 (16)5.1 市场前景分析 (16)5.2 行业挑战与机遇 (16)第六章结论与展望 (18)6.1 研究结论 (18)6.2 未来研究方向与展望 (18)第一章引言1.1 激光位移传感器的研究背景激光位移传感器，凭借其高精度和非接触式的测量特性，近年来在工业界和科研领域均受到了广泛的关注和应用。

激光位移传感器的标定_于正林

激光位移传感器的标定于正林1，乔夫涛1，王一尘2（1.长春理工大学机电工程学院，长春130022；2.吉林大学生物与农机工程学院，长春130022）摘要：介绍了一种基于高精度光栅尺标定激光位移传感器的方法。

该标定装置使用步进电机控制挡板的移动，光栅尺和激光位移传感器同时采集挡板移动的距离，计算机通过数据采集卡采集光栅尺和激光位移传感器的数据。

本装置的结构设计符合阿贝原则，同时详细介绍了标定装置的原理、组成结构和数据处理。

关键词：标定；激光位移传感器；光栅尺；阿贝原则中图分类号：TH71文献标识码：A文章编号：1672-9870（2013）（3-4）-0032-03Calibration of Laser Displacement SensorYU Zhenglin 1，QIAO Futao 1，WANG Yichen 2（1.College of Mechanical and Electrical Engineering ，Changchun University of Science and Technology ，Changchun 130022；2.School of Biological and Agricultural Engineering,Jilin University,Changchun 130022）Abstract ：In this paper ，a method of calibration of laser displacement sensor based on high precision grating scale is in-troduces.In this equipment ，step motor control the motion of dam board ，and grating scale and laser displacement sen-sor get the distance of dam board ’s puter collect the data of the grating scale and laser displacement sen-sor by DAQ Card.The structural design of this equipment accords with Abbe ’s principle .This paper gives a detailed introduction of this calibration equipment ’s theory ，construction and data processing.Key words ：calibration ；laser displacement sensor ；grating scale ；Abbe ’s principle激光位移传感器是利用激光技术进行测量的传感器，是一种将位移的变化转变成电信号变化的测量装置。

《位移传感器》课件2

感应式位移传感器
2
运动时的电阻变化
接触式位移传感器之一，由于感应精度
高，可用于非常精密的测量
3
光电式位移传感器
接触式位移传感器之一，通过红外线或
超声波位移传感器
4
激光进行测量，精度高。
接触式位移传感器之一，用于测量物体表面与传感器之间的距离，精度略低。
激光位移传感器
非接触式位移传感器之一，适用于测量机械和流体系统的位移和位置
摄像头位移传感器
非接触式位移传感器之一，可用于模拟量和数字量的测量
电容式位移传感器
非接触式位移传感器之一，由于缺乏传感器保护，易受到液体和气体环境的干扰而精度低。
位移传感器工作原理
为了更好地理解位移传感器如何运作，本节将详细介绍它们工作的原理。
电阻式位移传感器的原理
由于电阻力的变化，电阻式位移传感器用于检测物体位移和材料变形
位移传感器发展趋势
位移传感器部分未来的发展方向是提高精度、缩小体积，以及降低价格。
1
精度提高
制造商在提高精度方面正在不断努力，以便更好地让其应用到一些更加精确的要求中
2
体积缩小
如果位移传感器体积更小，将很容易将它们嵌入到电子装置中，并更好地适应更多应用情形。
3
价格下降
位移传感器市场在与许多厂商的竞争中下降，预测将在不久的将来进一步下降。
非接触式位移传感器的原理
非接触式位移传感器通过测量或感应电磁波信号来确定其与测量对象的距离或位置
位移传感器性能指标
有几个关键参数衡量位移传感器的性能。本节将介绍它们的每个性能参数和用途。
1 应力应变关系
这个参数反映器件在特定环境下的压力承受能力。

型激光位移传感器安全操作及保养规程

型激光位移传感器安全操作及保养规程激光位移传感器是一种非常重要的测量设备，它能够精确地测量物体的位移和距离。

在很多工业领域和科学研究中都有广泛的应用。

然而，在使用这种设备时，我们必须注意安全，并做好相应的保养工作，以保证其长期良好的工作状态和准确性。

本文将介绍型激光位移传感器的安全操作和保养规程。

一、安全操作规程1.在使用型激光位移传感器前，必须熟悉设备的结构和工作原理，并了解其安全操作规程。

不得擅自拆卸和改变传感器的结构或电路。

2.在使用型激光位移传感器时，必须对设备本身和工作环境进行认真检查和评估，确保设备能够正确地工作，并防止发生危险。

3.在使用型激光位移传感器时，必须穿戴相应的防护设备，如护目镜、手套、防尘面罩等。

4.在传感器安装和调试过程中，必须注意避免激光束暴露在人体上，以免造成伤害。

5.在使用型激光位移传感器时，应该保持传感器本身和周围环境的清洁，避免附着灰尘、水滴等物质，影响传感器的准确性。

6.若在使用过程中发现传感器存在异常，应立即停止使用并向专业人员进行咨询和检修。

二、保养规程1.在使用型激光位移传感器前，必须对设备进行检查和清洁，确保设备的正常工作。

2.在使用过程中，应该注意避免传感器受到强烈的机械震动或碰撞，以避免对传感器造成损害。

3.在传感器暂时不使用的情况下，应该将传感器放置在防尘的包装盒或封闭的容器中，避免灰尘、水滴等物质的附着，影响传感器的准确性。

4.若在使用过程中发现传感器存在灰尘等物质的附着，可以使用软刷和清洁剂进行清洁。

但是，应该注意避免使用刮擦器等硬物刮擦传感器表面，以免对传感器造成损坏或影响准确性。

5.增加对型激光位移传感器的保养和维护，可将其性能维持在最佳状态。

可定期进行专业的维修和保养，以确保传感器的长期使用。

三、结尾通过对型激光位移传感器的安全操作和保养规程的介绍，我们可以更好地了解如何正确地使用和保养这种设备，以确保其正常和准确的工作。

在实际操作中，大家务必严格遵守这些规程，也可以进一步加强对设备使用的安全性和稳定性的管理意识。

激光位移传感器系列 LAW 安装指南说明书

INSTALLATION GUIDELaser Displacement Sensor Series LAWFor further information please see the data sheet at /products/laser-sensors/WayCon Positionsmesstechnik GmbH would like to thank you for the trust you have placed in us and our products. This manual will make you familiar with the installation and operation of our laser sensors. Please read this manual carefully before initial operation!Unpacking and checking:Lift the device out of the box by grabbing the housing. Please pay attention not to touch the laser window. After unpacking the device, check it for any visible damage as a result of rough handling during the shipment. Check the delivery for completeness. If necessary consult the transportation company, or contact WayCon directly for further assistance.• These instructions are an integral part of the product and must be kept on hand for the entire duration of its service life.• Read the operating instructions carefully before using the product.• Installation, initial start-up and maintenance of the product may only be carried out by qualified personnel.• Tampering with or modifying the product is impermissible.• Protect the product from contamination during initial start-up.• Not a safety component in accordance with the EU machinery directive.Measurement Conditions:Measuring Range 4 mmSurface MaterialPossible objects to be measured include all sorts of materials such as metal, plastic, ceramic, rubber and paper. Suitability for use only needs to be tested individually for highly reflective surfaces and liquids.Surface Damage on the Object to be MeasuredA scratch on the surface of the object to be measured which runs perpendicular to the axis of the lens may cause stronger light emissions, whose maxima are located next to the centre of the spot. An incorrect distance is simulated as a result.If a moving object is involved, the mean (integral) measured value remains constant when the damaged surface is scanned, i.e. the positive and negative edges cancel each other out due to the damage. Undesired deflection can be minimized by selecting a suitable average filter.Extraneous LightWhen installing the sensor, it must be assured that no direct or reflected sunlight can shine into the receiver optics. Where difficult applications are involved, this “extraneous light” may interfere with measured value recording. The measuring point should be correspondingly shaded in such cases. Changes in RemissionThe sensors are equipped with luminous intensity control which is automatically adjusted to the level of remission from the object to be measured. If remission from the surface changes during measurement, the sensor compensates for any fluctuation. By selecting a fixed sampling rate, measured values remain accurate even if surface remission changes.Dependence of Measurement on AngleMeasurement is minimally dependent on angle if the sensor is not aligned at a right angle to the object to be measured. Tilting the sensor results in a greater distance to the object. This change in distance can be set to zero by means of a corresponding offset shift.INITIAL START-UPTwo connector plugs are integrated into the sensor’s housing. The 8-pin plug supplies the sensor with +24 V operating voltage, whereas communication for parameters configuring and process data is conducted via the 4-pin socket. We recommend the exclusive use of Ethernet switches in order to optimize data communication.Please note: If Gigabit Ethernet cards are used, the polarity of the Tx and Rx conductors might not be correctly detected. Connecting sensors directly may result in complications. With an Ethernet crossover cable (crosslink), the sensor functions flawlessly via a PC network card. As an alternative, acommercially available 100 Mbit Ethernet switch can also be used.SETTINGSThere are several different ways to enter settings to the device:• Via the integrated website, with which LAW Sensors are equipped. This website functions independent of the operating system and the sensor can be configured via a standard browser. The web-based configuration interface is not required for normal operation with a controller.• Using the function block for simplified incorporation of LAW Sensors into an S7 controller available for download at /downloads.Attention!If the sensor is connected to a controller, the settings which have been selected via the website are overwritten by the controller.Accessing the WebsiteStart the web browser. Enter the sensor’s manually selected IP address (standard: 192.168.0.225) to the address line in your browser and press the enter key. In order to ensure that the browser displays the current settings on the website, the website has to be reloaded whenever changes are made. Otherwise, changes might not be correctly displayed via the website.Settings are explained below based on the descriptive example provided by the website which is integrated into the sensor.SETTINGSDevice Settings (website)1. Network settings:The IP address and the addresses for the subnet mask and the gateway can be changed in the respective fields. Changes are activated by entering the “admin” password and by restarting the device. Please make sure that the selected subnet mask is actually available within the network. Otherwise you might not be able to find the sensor in the network.2. Measured value settings• Evaluation method: functions description• Average filter: Adjustable, rolling average filter from 1 to 1000 measured values.• The smaller the selected value, the faster the measured value reacts to jumps.• The larger the selected value, the more smoothed the measured value becomes.• Sampl ng rate: Possible settings include “Auto” (the sampling rate is adjusted automatically) or “=output rate” (sampling rate = output rate). Values can be selected within a range of 900 to 30,000 Hz as well.• Output rate: Values can be selected within a range of 10 to 30,000 Hz. The measured values are compiled individually as an Ethernet data packet at the selected rate. Example: Using the “extended continuous measurement” evaluation method with 150 distance values and a selected output rate of 1 kHz (corresponds to 1 ms), you get the entire data packet every 150 ms.• Laser: Laser power adjustable from 0.1 to 1 mW, or automatic• Offset: If desired, a zero-point offset can be entered here.• Screening Grid: When activated, the effects of the screening grid on the measured distance value and linearity are compensated for by this option.3. General settings• Encoder reset: Resets the encoder input to zero.• Default values: Resets all values to their default settings.Exception: network settings1. Analog output:Selection of 0 to 10 V or 4 to 20 mA.2. I/O settings:Various pin functions can be selected for the individual inputs/outputs.Depending on the selected setting, context menus offer corresponding selection options.Pin function:Switching output: The selected output functions as a switching output.External teach-i n: One of the sensor’s switching inputs can be taught in anew by applying an electrical signal to this input.Encoder E1+E2: A 2-channel rotary encoder with HTL square-wave signal must be used. ChannelSETTINGSSETTINGS2 mA input load:• Input load is set to 2 mA as a default value, but it can be switched off in the dropdown menu (e.g. if the PLC has a high-impedance PNP output).Input setting:• Operating voltage active: Pending tasks are executed when input voltage is on.• Operating voltage inactive: Pending tasks are executed when input voltage is off.MAINTENANCE• This sensor is maintenance-free.• It is advisable to clean the lens and the display, and to check the plug connections at regular intervals.• Do not clean with solvents or cleansers which could damage the product.DECLARATION OF EU-CONFORMITYWayCon Positionsmesstechnik GmbH4Mehlbeerenstraße82024 Taufkirchen / GermanyWe declare that the products to which the present declaration relates comply with the essential requirements of the given directive(s) and have been evaluated on the basis of the listed standard(s).Classification Laser SensorsSeries LAWDirective(s) 2014/30/EUStandard(s) EN 60947-5-2:2007+A1:2012 and EN 60947-5-7:2003The declaration of conformity loses its validity if the product is misused or modified without proper authorisation.AndreasTäger18.08.2020Taufkirchen,CEO。

激光位移传感器IL_IM使用说明书

1 类激光产品 220 µW
2 类激光产品 560 µW
* 该等级是根据 IEC60825-1 标准做出的，并符合 Laser Notice No.50 of FDA (CDRH) 的要求。
激光的安全措施
激光辐射发射指示灯
在激光发射期间，激光辐射发射指示灯将点亮。而在激光停止发射时，它将不停闪烁。
传感头
传感头 IL-030 （宽 30 mm）
传感头 x 1 安装托架 x 1 绝缘片 x 1 平头螺帽 x 1 M3 x L30 螺钉 x 2
IL-S025 （25 mm 型） /IL-S065 （65 mm 型） / IL-065 （65 mm 型） /IL-100 （100 mm 型）
传感头 x 1 安装托架 x 1 绝缘片 x 1 平头螺帽 x 1 M3 x L30 螺钉 x 2 激光警示标签 x 1
放大器 x 1
面板安装工具 x 1
各部分
传感器放大器单元
DIN 导轨安装型 (IL-1000/IL-1050)
(1)
(16) (15) (14)
(2)
(3)
(13)
(4)
(5)
(6)
(7)
(8) (9) (10) (11) (12)
面板安装型 (IL-1500/IL-1550)
(1)
(16) (15) (14)
⊼ᛣ
ቤተ መጻሕፍቲ ባይዱ
表示若不遵守该注意事项，将导致本产品损害以及财产损失。
䞡㽕
表示使用过程中，必须遵守的注意事项和使用限制等。
㽕⚍
表示正确使用本产品所必须注意的其它信息。
খ㗗
表示为了更好地理解和使用有关信息所给出的一些小诀窍。

博亿精科激光位移器说明书

博亿精科激光位移器说明书
博亿精科激光位移器说明书
博亿精科激光位移器是一种具有高精度和可靠性的激光位移传感器，它采用全
新的激光划分技术，可以提供毫米级的精度，高精度，宽测量范围和可靠性，在机械行业、空间、航空航天等领域得到了广泛应用。

博亿精科激光位移器以其创造性的结构设计受到了世界多个领域推崇。

它采用
了激光划分式测量技术，可以实现更高精度和宽测量距离，而且在高温、湿度、污染等复杂环境下可以维持精度。

此外，博亿精科激光位移器还採用无接触技术，从而可以避免困难的泡沫污染和不幸损坏的情况发生。

同时，它的使用也使得由精密机械组件控制的平台能够保持准确、稳定而可靠的操作。

在性能方面，博亿精科激光位移器可以提供高度精确和宽范围的测量距离(可
达500米)，并可以支持多达六种不同的测量模式，分别为垂直测量模式、网格测
量模式、离散测量模式、水平测量模式，同时还可以根据用户需求，为客户量身定制特殊的测量模式等。

此外，博亿精科激光位移器拥有出色的三项特点：一是高精度，采用微米级的解析能力；二是宽的测量范围，可以测量宽度范围；三是可靠性，可以克服复杂环境中的系统漂移，确保测量精度。

博亿精科激光位移器具有若干优点，极大地提高了机械行业、空间、航空航天
多方面的效率，这不仅仅使得位移变换更加精确、准确，还能够减少企业的生产成本，节省大量的精力和经费。

博亿精科激光位移器重要的功能是提供可靠的精度和可靠性，能满足许多业务
需求，是空间、航空航天、机械行业的理想的精准测量设备。

它的高精度可以帮助企业提高产品质量，提高日常生产率，从而节省着艰苦努力。

激光位移传感器的工作原理

激光位移传感器的工作原理
激光位移传感器是一种测量目标物体与传感器之间距离或位移的装置。

它利用激光光束的特性来测量目标物体与传感器之间的距离。

激光位移传感器一般由光学系统、探测系统和信号处理系统组成。

首先，激光发射器通过激光二极管或气体激光器发射一束单色激光光束。

这束光经过透镜或反射镜进行聚焦，形成一个细小且均匀的测量点。

当激光束照射到目标物体上时，一部分光被该物体反射回来。

反射回来的光经过光学系统，再次聚焦到探测系统的光敏元件上。

探测系统中的光敏元件（如光电二极管或光电二极管阵列）可以将光信号转换成电信号。

接着，信号处理系统接收到光敏元件输出的电信号，并通过比较输入和输出信号的差异来计算目标物体与传感器之间的距离或位移。

一般情况下，信号处理系统通过测量光的相位、频率或幅值来确定距离或位移的变化。

激光位移传感器具有高精度、快速响应和非接触测量等特点，广泛应用于工业自动化、机器人导航、医疗器械和科学研究等领域。

激光位移传感器安全操作及保养规程

激光位移传感器安全操作及保养规程概述激光位移传感器作为一种高精度测量仪器，被广泛应用于各种精密测量、定位等领域。

为了保证激光位移传感器的正常运行和测量精度，必须遵守以下安全操作及保养规程。

安全操作规程1. 工作场所1.1 工作场所应保持清洁、干燥、通风、无尘和无电磁干扰，并避免阳光直射。

1.2 工作场所应避免使用振动、温度变化较大的设备，并禁止在场所内吸烟、饮食以及跑动、追逐等不安全行为。

2. 操作人员2.1 操作人员应确保工作场所周围没有任何物体或人员，避免误触和碰撞。

2.2 操作人员应佩戴静电防护手套，以避免静电干扰对激光位移传感器产生影响。

2.3 操作人员应避免直接用手触摸激光发射器和其他带有电压或电流的部件，以免受电击或烫伤。

2.4 操作人员应注意保持安静，避免使用大声喊叫等可能对激光位移传感器产生影响的行为。

2.5 操作人员应遵守操作规程，避免操作过程中产生磁场、外力等可能对激光测量精度产生干扰的因素。

3. 操作流程3.1 操作前应检查激光位移传感器及其附件是否完好，以及测量距离是否超出范围。

3.2 操作中应严格按照说明书进行操作，避免产生磁场、外力等可能对激光测量精度产生干扰的因素。

3.3 测量过程中应避免摇晃、震动、碰撞等影响激光测量精度的因素。

3.4 操作完成后应将激光位移传感器放置在安全位置，避免损坏或影响传感器的测量精度。

保养规程1. 定期检查1.1 定期检查激光位移传感器及附件是否正常，如有发现异常应及时更换或维修。

1.2 定期检查激光测距的距离范围是否超出限制，如有超出应及时更换或维修。

2. 清洁保养2.1 使用清洁布擦拭激光位移传感器表面，避免使用有腐蚀性、刮伤性等危险物质。

2.2 定期使用空气吹枪清除传感器表面的灰尘和细小颗粒。

2.3 镜片应避免触碰和刮擦，如出现刮擦应及时更换。

3. 存储保护3.1 在存放激光位移传感器时，应将其放置在干燥通风、无尘和无电磁干扰的地方。

激光位移传感器参数安全操作及保养规程

激光位移传感器参数安全操作及保养规程激光位移传感器是一种精密的测量仪器，广泛应用于各种工业生产和科研领域，可以测量物体的位移、速度、加速度等参数。

为了确保仪器的正常使用和延长使用寿命，必须进行安全操作和保养。

本文将介绍激光位移传感器的参数安全操作及保养规程。

一、参数安全操作1. 使用前准备在使用激光位移传感器之前，必须进行以下的准备工作：a.确定测量原点和目标位置，并且保证测量环境安全和稳定。

b.清洁测量位置和传感器脏污，并且检查是否有损坏或折叠现象。

c.记录测量环境和测量数据，以便后续分析和对比。

2. 操作注意事项在使用激光位移传感器时，需要注意以下几点：a.在测量过程中，不要让激光束直接照射到人眼或其他敏感部位，否则会导致伤害。

b.在测量过程中，不要移动传感器或测量物体，否则会影响测量数据的准确性。

c.在测量过程中，需要保证测量环境稳定，避免其他设备和人员干扰。

d.在测量结束后，需要将传感器及时关闭，并且保存好记录和数据文件。

二、保养规程除了安全操作之外，还需要进行定期的保养和维护，保证仪器的正常运行和延长使用寿命。

1. 日常保养a.清洁传感器表面的光学器件和电路板，并且去除灰尘和污垢。

b.检查传感器电缆和接头是否损坏或松动，并且进行必要的修理或更换。

c.避免长时间暴露在过热和过冷的环境中，以免影响传感器的性能和寿命。

2. 定期检验a.检查传感器精度和灵敏度是否正常，以保证测量数据准确。

b.检查电源和信号线路的连接是否正确，以避免电器故障或传输错误。

c.对于老化或损坏的零件和器件，需要及时更换或修理。

d.定期进行标定和校准，确保测量结果的可靠性和精确性。

三、总结激光位移传感器是一种精密的测量仪器，需要进行安全操作和保养，以确保仪器正常运行和延长使用寿命。

在操作过程中需要注意安全事项，不要直接照射到敏感部位，保持测量环境稳定，以确保测量数据的准确性。

在日常保养和定期检验中，需要清洁器件和电路板，检查电缆和接头是否损坏或松动，进行必要的维护和修理，定期校准和标定以保证测量结果的可靠性和精确性。

激光位移传感器目录

LK-H080 ø70 μm
LK-H150 ø120 μm
测量 IC 阵脚高度
得益于 delta cut 技术，滤光片导致的畸变被降至最低。这些对光学系统的改进意味着光点不仅在 RS-CMOS 上聚焦，在目标区域中同样精确聚焦。这样就能实现之前无法完成的高精度轮廓测量。
测量 IC 阵脚高度
0.2 —LK-H020 — 常规型
得益于 LK-G5000 系列中使用的高级圆柱形物镜，整个测量范围内的光点宽度始终保持一致。这样即使目标距离感测头过近或过远，平分面积始终不变。
金属表面的测量
最大限度地减少粗糙表面的不平整所造成的影响，例如拉丝金属表面和橡胶表面等。以往前所未有的测量精确度现在已成为现实。
应用测量电极厚度
测量拉丝金属表面测量圆盘马达的振动
0.1
测
量值
0
-0.1
单位 : mm
-0.2 -2.5 -2 -1.5 -1 -0.5 0 0.5
位置
1 1.5
2 2.5
应用测量太阳能板的活动层
变焦物镜的组装精确度
测量连接器高度
LK-G5000 系列 7
透明 / 镜面物体
镜面反射型
透明 / 镜面表面测量结果展示
LK-G5000 系列包含一组感测头，专为玻璃或其他镜面等高反射物体而设计。感测头包含宽光点和聚焦光点两种等类型，最适合在这些表面上进行高精度测量。
激光发射时间和激光功率对不同物体的变化
镜面
高
变化
低
黑橡胶
常规型号发射时间过短
发射时间过长
高合适
低
ABLE II
激光功率低
反射率追踪速度影响测量精度