Laser sensor type roller shape on-line measuring device
By designing protective shells and using laser sensor devices with composite aerogel insulation boards and air-cooling devices, the problem of laser sensors being susceptible to high temperatures and water spraying in harsh environments is solved, achieving higher measurement accuracy and equipment stability .
Patent Information
- Application Number
- CN202411511920.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-28
- Publication Date
- 2025-02-18
AI Technical Summary
Existing laser sensor measuring devices are susceptible to high temperatures and water spray in harsh environments, resulting in measurement deviations or inability to use.
A laser sensor-type roll-roll-shaped online measurement device including a protective shell and a protective upper cover is designed. It uses a composite aerogel thermal insulation board and air-cooling device to prevent dust, heat insulation, waterproof and cooling to ensure that the laser sensor is at high temperatures. Work stably in the environment.
It effectively reduces the temperature of the laser sensor, prevents deviations in measurement results, improves measurement accuracy and equipment performance, and extends the service life of the equipment.
Smart Images
Figure CN119486028A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of laser sensors, and in particular to a laser sensor type roll shape online measuring device. Background Art
[0002] Laser sensor is a sensor that uses laser technology for measurement. It consists of a laser, a laser detector and a measuring circuit. When using a laser sensor to measure the roll shape of a roll, it uses the principle of laser reflection and ranging. When the laser sensor emits a laser beam to the roll surface, the reflected light on the roll surface is reflected into the laser sensor. After wavelength recognition and calculation, the actual position of the roll surface is obtained. By comparing the difference between the initial position of the roll and the real-time measured position, the deformation and wear of the roll during use can be obtained.
[0003] The measuring device in the prior art is not convenient for cooling and protecting the laser sensor. The existing protective shell is only protected by a top cover and a bottom box, and only has dustproof performance. However, during the roller shape detection process, if the on-site working environment is harsh, the laser sensor is easily affected by external factors such as high temperature and water spray, which will cause deviations in the laser sensor measurement and even make it unusable. Summary of the invention
[0004] In view of the above technical problems, the present invention proposes a laser sensor type roll shape online measuring device, comprising a protective shell and a protective upper cover, wherein the protective upper cover is detachably mounted on the top of the protective shell, a sealing track plate is arranged on the protective shell, a sealing groove is opened on the protective upper cover, the sealing track plate matches the sealing groove, a sealing gasket is arranged at the connection between the sealing track plate and the sealing groove, a heat insulation plate 1 is arranged in the protective shell, a heat insulation plate 2 is arranged in the protective upper cover, and the interior of the protective shell is dustproof, heat-insulated and waterproofed through the cooperation of the heat insulation plate 1 and the heat insulation plate 2; a ventilation pipe 1 is arranged above one side of the protective shell. A ventilation pipe 2 is arranged at the lower part of the other side of the protective shell, and the ventilation pipe 1 and the ventilation pipe 2 are staggered. The ventilation pipe 2 is externally connected to an air cooling device, and cold air is injected through the ventilation pipe 1 through the air cooling device, and the injected cold air is discharged through the ventilation pipe 2; a support frame is detachably installed inside the protective shell, and a cooling device is installed on the support frame, and a position adjustment unit is installed on the cooling device, and a laser sensor assembly for measuring the roll shape of the rolling mill roll is installed on the position adjustment unit; an optical path channel for ensuring the light emission of the laser sensor assembly is also opened on the side of the protective shell, and a polycarbonate transparent plate is arranged on the optical path channel.
[0005] Furthermore, a cable plug interface 2 for supplying power to the laser sensor assembly and a cable plug interface 1 for supplying power to the cooling device are provided on one side of the protective shell, and the cable plug interface 1 is provided below the cable plug interface 2.
[0006] Furthermore, one side of the thermal insulation board one is provided with a vent one matching with the ventilation pipe one, a cable port one matching with the cable plug interface two, and a cable port two matching with the cable plug interface one; the other side of the thermal insulation board one is provided with a light passage matching with the optical path and a vent two matching with the ventilation pipe two; the cable plug interface one and the cable plug interface two are both provided with sealing plugs for waterproofing the protective shell and sealing the air inside the thermal insulation board one.
[0007] Furthermore, the insulation board 1 and the protective upper cover are both made of a composite aerogel insulation board, and the composite aerogel insulation board is made of a silica aerogel material, synthesized by a wet method, and has an ultra-low thermal conductivity.
[0008] Furthermore, the cooling device includes a cooling plate 2, a cooling frame 1, a cooling frame 2, a motor, a cooling fan, a protective shell and a mounting plate 2. The cooling frame 2 is detachably mounted on the support frame. The cooling frame 2 is in the shape of an inverted cone with a larger top and a smaller bottom. The cooling plate 2 is detachably mounted above the cooling frame 2. The cooling frame 1 is fixedly mounted below the cooling frame 2. The mounting plate 2 is detachably mounted in the cooling frame 1. The protective shell is fixedly mounted in the mounting plate 2. The cooling fan is coaxially rotatably mounted in the protective shell. The motor is detachably mounted in the cooling frame 1. The cooling fan is coaxially fixedly connected to the output shaft of the motor.
[0009] Furthermore, the cooling plate 2 is provided with a plurality of heat dissipation openings 3, the cooling rack 1 is provided with a plurality of heat dissipation openings 2, and one side of the cooling rack 1 is also provided with a cable opening 3 matching the cable plug interface 1 and the cable opening 2, and the cable is used to power the motor through the cable plug interface 1, the cable opening 2 and the cable opening 3.
[0010] Furthermore, the position adjustment unit includes a cooling plate, bolts, guide rails and a heat dissipation port. The cooling plate is detachably mounted on a cooling frame by a plurality of bolts. The cooling plate is arranged above a cooling plate. Two guide rails are arranged on the cooling plate at intervals. Both ends of both sides of the cooling plate are fixedly mounted with mounting plates. The cooling plate is provided with a plurality of heat dissipation ports. Screws and sliders are arranged on both sides of the cooling plate. The screws are rotatably mounted on the mounting plate. A rotating ring is fixedly mounted on the end of each screw. The two sliders are respectively fixedly mounted on the two sides of the laser sensor assembly. The sliders are connected to the screws by threads.
[0011] Furthermore, the laser sensor assembly includes a laser sensor, two sliding frames are detachably arranged at intervals below the laser sensor, the sliding frames match the guide rails, the sliding frames are slidably connected to the guide rails, a power supply port is arranged at one end of the laser sensor close to the second cable plug interface, a laser head is arranged on the side of the laser sensor facing the light port and the optical path channel, the laser head is coaxially arranged with the light port and the optical path channel, and the two sliders are respectively fixedly installed on both sides of the laser sensor.
[0012] Compared with the prior art, the beneficial effects of the present invention are as follows: (1) During the real-time measurement process, the air cooling device of the present invention can inject cold air into the protective housing and the heat insulation board one through the ventilation pipe two and the ventilation port two. The cold air cools down the laser sensor in the heat insulation board one. At the same time, the cooling fan in the cooling device blows the cold air to the cooling board two through the heat dissipation port two, and cools down the bottom of the laser sensor through the heat dissipation port three and the heat dissipation port one, thereby completely and thoroughly cooling the laser sensor, which can solve the problem that the bottom cannot be cooled by blowing air in the prior art. After cooling, the wind is discharged through the ventilation port one and the ventilation pipe one, thereby reducing the temperature inside the protective housing to the maximum extent, ensuring that the laser sensor measures at the specified operating temperature, improving the performance of the laser sensor, and reducing the influence of the external temperature on the laser sensor; preventing the technical problem of deviation in the measurement result of the laser sensor due to excessive temperature; at the same time, because the ventilation pipe one and the ventilation pipe two are staggered, it can ensure that the cold air fills the entire shell, which can effectively avoid overheating of the sensor in a high temperature environment and affect the detection; (2) The first and second insulation boards of the present invention are composite aerogel insulation boards. Since the composite aerogel insulation boards are a new generation of fire-resistant insulation materials synthesized by wet method and made of silica aerogel with ultra-low thermal conductivity, they can work at 900°C for a long time and have multiple advantages such as light weight, high strength, processability, and waterproofness. They can greatly reduce the impact of excessive roller temperature on the performance of laser sensors and also have a waterproof effect. (3) In the present invention, a polycarbonate transparent plate (PC plate) is installed on the optical path. The polycarbonate transparent plate has excellent heat resistance and ultra-low thermal conductivity, and has extremely strong light transmittance. At the same time, polycarbonate is hydrophobic. A nano coating is sprayed on the outside of the polycarbonate, which can reduce the measurement error caused by the refraction of water. At the same time, it can also reduce the water mist caused by the temperature difference between the protective shell and the heat insulation board, thereby ensuring the detection effect of the laser sensor; (4) In actual use, the present invention can effectively protect the water vapor, dust, etc. outside the protective shell by setting the sealing gasket between the sealing track plate and the sealing groove, as well as the cable plug interface 1, the cable plug interface 2, the cable port 1 and the cable port 2, and the sealing plug design, and the sealing gasket has no leakage, which effectively extends the service life of the protective shell and the sealing gasket; (5) The present invention improves the protection level of the laser sensor, has high protection, strong practicality, and is easy to install. It improves the accuracy of online measurement of the roll shape of the rolling mill and reduces the measurement error. BRIEF DESCRIPTION OF THE DRAWINGS
[0013] Figure 1 It is a schematic diagram of the overall structure of the present invention.
[0014] Figure 2 It is a front view of the present invention.
[0015] Figure 3 It is a side view of the present invention.
[0016] Figure 4 It is a rear view of the present invention.
[0017] Figure 5 The local structure of the present invention is shown in FIG. Figure 1 .
[0018] Figure 6 It is a schematic structural diagram of a heat insulation board 1 of the present invention.
[0019] Figure 7 It is a schematic structural diagram of the protective upper cover of the present invention.
[0020] Figure 8 The local structure of the present invention is shown in FIG. Figure 2 .
[0021] Fig. 9 It is a top view of the present invention.
[0022] Fig.10 For the present invention Fig. 9 Cross-sectional view along the AA direction.
[0023] Fig.11 For the present invention Fig.10 Enlarged structural diagram at B in the middle.
[0024] Fig.12 It is a schematic diagram of the local structure of the cooling device of the present invention.
[0025] Figure numbers: 101-protective housing; 102-cable plug interface 1; 103-cable plug interface 2; 104-heat insulation board 1; 105-sealed track plate; 106-ventilation port 1; 107-cable port 1; 108-cable port 2; 109-ventilation port 2; 110-light port; 201-protective cover; 202-sealing groove; 203-heat insulation board 2; 301-ventilation pipe 1; 302-ventilation pipe 2; 401-light path; 501-support frame; 601-cooling board 1; 602 -bolts; 603-guide rails; 604-heat dissipation port 1; 605-mounting plate 1; 606-screw; 607-slider; 608-rotating ring; 701-laser sensor; 702-power supply port; 703-laser head; 704-sliding frame; 801-cooling plate 2; 802-cooling frame 1; 803-heat dissipation port 2; 804-cable port 3; 805-heat dissipation port 3; 806-cooling frame 2; 807-motor; 808-cooling fan; 809-protective shell; 810-mounting plate 2. DETAILED DESCRIPTION
[0026] The present invention will be further described below in conjunction with specific embodiments. The illustrative embodiments and descriptions of the present invention are used to explain the present invention but are not intended to limit the present invention.
[0027] Example: Figure 1-Figure 12 The laser sensor type roll shape online measuring device shown in the figure comprises a protective shell 101 and a protective upper cover 201, the protective upper cover 201 is detachably mounted on the top of the protective shell 101, a sealing track plate 105 is arranged on the protective shell 101, a sealing groove 202 is opened on the protective upper cover 201, the sealing track plate 105 matches the sealing groove 202, a sealing gasket is arranged at the connection between the sealing track plate 105 and the sealing groove 202, a heat insulation plate 104 is arranged in the protective shell 101, a heat insulation plate 203 is arranged in the protective upper cover 201, and the interior of the protective shell 101 is dustproof, heat-insulated and waterproofed by the cooperation of the heat insulation plate 104 and the heat insulation plate 203; a sealing plate 104 is arranged on the top of one side of the protective shell 101. Ventilation duct one 301 and ventilation duct two 302 are arranged at the lower part of the other side of the protective shell 101, and the ventilation duct one 301 and ventilation duct two 302 are staggered. Ventilation duct two 302 is externally connected to an air cooling device, and cold air is injected through the ventilation duct one 301 through the air cooling device, and the injected cold air is discharged through the ventilation duct two 302; a support frame 501 is detachably installed inside the protective shell 101, and a cooling device is installed on the support frame 501, and a position adjustment unit is installed on the cooling device, and a laser sensor assembly for measuring the roll shape of the rolling mill roll is installed in the position adjustment unit; an optical path channel 401 is also opened on the side of the protective shell 101 to ensure the light emission of the laser sensor assembly, and a polycarbonate transparent plate is arranged on the optical path channel 401.
[0028] A cable plug interface 2 103 for supplying power to the laser sensor assembly and a cable plug interface 1 102 for supplying power to the cooling device are provided on one side of the protective housing 101 . The cable plug interface 1 102 is provided below the cable plug interface 2 103 .
[0029] One side of the heat insulation board 104 is provided with a vent 106 matching the ventilation pipe 301, a cable port 107 matching the cable plug interface 103, and a cable port 108 matching the cable plug interface 102. The other side of the heat insulation board 104 is provided with a light passage 110 matching the optical path channel 401 and a vent 109 matching the ventilation pipe 302. Sealing plugs are provided at the cable plug interface 102 and the cable plug interface 103 for waterproofing and sealing the air in the protective shell 101 and the heat insulation board 104.
[0030] The insulation board 104 and the protective cover 201 are both made of composite aerogel insulation board. Since the composite aerogel insulation board is a new generation of refractory insulation material synthesized by wet method and made of silica aerogel with ultra-low thermal conductivity, it can work at 900°C for a long time, and also has multiple advantages such as lightweight, high strength, processability, and waterproofness. It can greatly reduce the impact of excessive roller temperature on the performance of the laser sensor 701, and can also play a waterproof effect.
[0031] The cooling device includes a cooling plate 801, a cooling frame 802, a cooling frame 806, a motor 807, a cooling fan 808, a protective shell 809 and a mounting plate 810. The cooling frame 806 is detachably mounted on the support frame 501. The cooling frame 806 is in the shape of an inverted cone with a larger top and a smaller bottom. The cooling plate 801 is detachably mounted on the top of the cooling frame 806. The cooling frame 802 is fixedly mounted on the bottom of the cooling frame 806. The mounting plate 810 is detachably mounted in the cooling frame 802. The protective shell 809 is fixedly mounted in the mounting plate 810. The cooling fan 808 is coaxially rotatably mounted in the protective shell 809. The motor 807 is detachably mounted in the cooling frame 802. The cooling fan 808 is coaxially fixedly connected to the output shaft of the motor 807.
[0032] The cooling plate 801 is provided with a plurality of heat dissipation openings 805, the cooling rack 802 is provided with a plurality of heat dissipation openings 803, and one side of the cooling rack 802 is also provided with a cable opening 804 matching the cable plug interface 102 and the cable opening 108. The cable is used to supply power to the motor 807 via the cable plug interface 102, the cable opening 108 and the cable opening 804.
[0033] The position adjustment unit includes a cooling plate 601, bolts 602, guide rails 603 and a heat dissipation port 604. The cooling plate 601 is detachably mounted on the cooling frame 802 by a plurality of bolts 602. The cooling plate 601 is arranged above the cooling plate 801. Two guide rails 603 are arranged on the cooling plate 601 at intervals. Mounting plates 605 are fixedly mounted on both ends of both sides of the cooling plate 601. A plurality of heat dissipation ports 604 are provided on the cooling plate 601. Screws 606 and sliders 607 are arranged on both sides of the cooling plate 601. The screws 606 are rotatably mounted on the mounting plate 605. A rotating ring 608 is fixedly mounted on the end of each screw 606. Two sliders 607 are respectively fixedly mounted on both sides of the laser sensor assembly. The sliders 607 and the screws 606 are connected by threads.
[0034] The laser sensor assembly includes a laser sensor 701, two sliding frames 704 are detachably arranged at intervals below the laser sensor 701, the sliding frames 704 match the guide rail 603, the sliding frames 704 are slidably connected to the guide rail 603, a power supply port 702 is arranged at one end of the laser sensor 701 close to the cable plug interface 2 103, a laser head 703 is arranged on the side of the laser sensor 701 facing the light port 110 and the optical path channel 401, the laser head 703 is coaxially arranged with the light port 110 and the optical path channel 401, and two sliders 607 are fixedly installed on both sides of the laser sensor 701 respectively.
[0035] The working principle of the present invention is: When it is necessary to adjust the distance from the laser head 703 to the light opening 110 and the optical path channel 401 (adjust according to the test results during actual use), the two rotating rings 608 are rotated at the same time. By setting two screws 606 and two rotating rings 608, it is possible to prevent the position of the laser head 703 from being deviated due to the misoperation of rotating one of the rotating rings 608. When the two rotating rings 608 are rotated, the rotating ring 608 drives the screw 606 to rotate. When the screw 606 rotates, it drives the laser sensor 701 to move through the slider 607. The laser sensor 701 drives the laser head 703 to move, thereby adjusting the distance from the laser head 703 to the light opening 110 and the optical path channel 401 to ensure the effect of the laser sensor 701 on the online measurement of the roll shape of the roller.
[0036] When the laser sensor 701 needs to be cooled during real-time measurement, the air cooling device injects cold air into the protective housing 101 and the heat insulation board 104 through the ventilation pipe 2 302 and the ventilation port 2 109. The cold air cools the laser sensor 701 in the heat insulation board 104. At the same time, the output shaft of the motor 807 drives the cooling fan 808 to rotate. When the cooling fan 808 rotates, the cold air is blown to the cooling board 2 801 through the heat dissipation port 2 803, and the bottom of the laser sensor 701 is cooled through the heat dissipation port 3 805 and the heat dissipation port 1 604, so that the laser sensor 701 can be cooled. The optical sensor 701 is completely and thoroughly cooled, which can solve the problem in the prior art that it is impossible to cool the bottom by blowing air. After cooling, the wind is discharged through the vent 106 and the ventilation pipe 301, thereby ensuring that the laser sensor 701 can always maintain a suitable temperature and preventing the technical problem of deviation in the measurement result of the laser sensor 701 due to excessive temperature. At the same time, since the ventilation pipe 1 301 and the ventilation pipe 2 302 are staggered, it can be ensured that cold air fills the entire shell, which can effectively avoid overheating of the sensor in a high temperature environment and affect detection.
[0037] Since a polycarbonate transparent plate (PC plate) is installed on the optical path channel 401, the polycarbonate transparent plate has excellent heat resistance and ultra-low thermal conductivity, and has extremely strong light transmittance. At the same time, polycarbonate is hydrophobic, and a nano-coating is sprayed on the outside of the polycarbonate, which can reduce the measurement error caused by the refraction of water. At the same time, it can also reduce the water mist caused by the temperature difference between the inside and outside of the protective shell 101 and the insulation board 104, thereby ensuring the detection effect of the laser sensor 701.
[0038] In actual use, the present invention can effectively protect the water vapor, dust and the like outside the protective shell 101 by setting a sealing gasket between the sealing track plate 105 and the sealing groove 202, and designing the sealing plugs at the cable plug interface 102, the cable plug interface 2 103, the cable port 1 107 and the cable port 2 108, and the sealing gasket has no leakage, thereby effectively extending the service life of the protective shell 101 and the sealing gasket. The present invention improves the protection level of the laser sensor 701, has high protection, strong practicality, and is easy to install, thereby improving the accuracy of online measurement of the roller shape and reducing measurement errors.
Claims
1. A laser sensor type roll shape online measuring device, comprising a protective shell (101) and a protective upper cover (201), wherein the protective upper cover (201) is detachably mounted above the protective shell (101), characterized in that: The protective shell (101) is provided with a sealing track plate (105), the protective upper cover (201) is provided with a sealing groove (202), the sealing track plate (105) matches the sealing groove (202), a sealing gasket is provided at the connection between the sealing track plate (105) and the sealing groove (202), a heat insulation board 1 (104) is provided in the protective shell (101), and a heat insulation board 2 (203) is provided in the protective upper cover (201), and the interior of the protective shell (101) is dustproof, heat-insulated and waterproof through the cooperation of the heat insulation board 1 (104) and the heat insulation board 2 (203); a ventilation pipe 1 (301) is provided above one side of the protective shell (101), and a ventilation pipe 2 (301) is provided below the other side of the protective shell (101). The first ventilation pipe (301) and the second ventilation pipe (302) are staggered, and the second ventilation pipe (302) is externally connected to an air cooling device, through which cold air is injected into the first ventilation pipe (301), and the injected cold air is discharged through the second ventilation pipe (302); a support frame (501) is detachably installed inside the protective shell (101), a cooling device is installed on the support frame (501), a position adjustment unit is installed on the cooling device, and a laser sensor component for measuring the roll shape of the rolling mill is installed on the position adjustment unit; the side of the protective shell (101) is also provided with an optical path channel (401) to ensure the emission of light from the laser sensor component, and a polycarbonate transparent plate is arranged on the optical path channel (401).
2. A laser sensor type roll shape online measuring device as claimed in claim 1, characterized in that: A second cable plug interface (103) for supplying power to the laser sensor assembly and a first cable plug interface (102) for supplying power to the cooling device are provided on one side of the protective housing (101), and the first cable plug interface (102) is provided below the second cable plug interface (103).
3. A laser sensor type roll shape online measuring device as claimed in claim 2, characterized in that: One side of the thermal insulation board 1 (104) is provided with a ventilation port 1 (106) matching the ventilation pipe 1 (301), a cable port 1 (107) matching the cable plug interface 2 (103), and a cable port 2 (108) matching the cable plug interface 1 (102); the other side of the thermal insulation board 1 (104) is provided with a light passage (110) matching the optical path channel (401) and a ventilation port 2 (109) matching the ventilation pipe 2 (302); the cable plug interface 1 (102) and the cable plug interface 2 (103) are both provided with sealing plugs for waterproofing and sealing the air in the protective shell (101) and the thermal insulation board 1 (104).
4. A laser sensor type roll shape online measuring device as claimed in claim 3, characterized in that: The insulation board 1 (104) and the protective upper cover (201) are both made of composite aerogel insulation boards. The composite aerogel insulation boards are made of silica aerogel material, synthesized by a wet method, and have ultra-low thermal conductivity.
5. A laser sensor type roll shape online measuring device as claimed in claim 4, characterized in that: The cooling device comprises a second cooling plate (801), a first cooling frame (802), a second cooling frame (806), a motor (807), a cooling fan (808), a protective shell (809) and a second mounting plate (810). The second cooling frame (806) is detachably mounted on the support frame (501). The second cooling frame (806) is in the shape of an inverted frustum with a larger top and a smaller bottom. The second cooling plate (801) is detachably mounted above the second cooling frame (806). The first cooling frame (802) is fixedly installed below the second cooling rack (806), the second mounting plate (810) is detachably installed in the first cooling rack (802), the protective shell (809) is fixedly installed in the second mounting plate (810), the cooling fan (808) is coaxially rotatably installed in the protective shell (809), the motor (807) is detachably installed in the first cooling rack (802), and the cooling fan (808) is coaxially fixedly connected to the output shaft of the motor (807).
6. A laser sensor type roll shape online measuring device as claimed in claim 5, characterized in that: The cooling plate 2 (801) is provided with a plurality of heat dissipation openings 3 (805), the cooling frame 1 (802) is provided with a plurality of heat dissipation openings 2 (803), and one side of the cooling frame 1 (802) is also provided with a cable opening 3 (804) matching the cable plug interface 1 (102) and the cable opening 2 (108), and the cable supplies power to the motor (807) via the cable plug interface 1 (102), the cable opening 2 (108) and the cable opening 3 (804).
7. A laser sensor type roll shape online measuring device as claimed in claim 6, characterized in that: The position adjustment unit comprises a cooling plate 1 (601), bolts (602), guide rails (603) and a heat dissipation port 1 (604); the cooling plate 1 (601) is detachably mounted on a cooling frame 1 (802) via a plurality of bolts (602); the cooling plate 1 (601) is arranged above a cooling plate 2 (801); two guide rails (603) are arranged on the cooling plate 1 (601) at intervals; and mounting plates 1 (605) are fixedly mounted on both ends of both sides of the cooling plate 1 (601). ), a plurality of heat dissipation openings (604) are provided on the cooling plate (601), screws (606) and sliders (607) are provided on both sides of the cooling plate (601), the screws (606) are rotatably mounted on the mounting plate (605), a rotating ring (608) is fixedly mounted on the end of each screw (606), two sliders (607) are respectively fixedly mounted on both sides of the laser sensor assembly, and the sliders (607) are connected to the screws (606) by threads.
8. The laser sensor type roll shape online measuring device according to claim 7, characterized in that: The laser sensor assembly comprises a laser sensor (701), two sliding frames (704) are detachably arranged at intervals below the laser sensor (701), the sliding frames (704) match the guide rail (603), and the sliding frames (704) are slidably connected to the guide rail (603); a power supply port (702) is arranged at one end of the laser sensor (701) close to the second cable plug interface (103); a laser head (703) is arranged on a side of the laser sensor (701) facing the light through port (110) and the optical path channel (401); the laser head (703) is coaxially arranged with the light through port (110) and the optical path channel (401); and the two sliding blocks (607) are respectively fixedly mounted on two sides of the laser sensor (701).