A scanner for industrial data collection

Abstract

The present invention belongs to the technical field of equipment scanning, and specifically relates to a scanner for industrial data acquisition, including a scanning device. The scanning device includes a workbench, and a first electric guide rail is fixedly connected to the top of the workbench. A first slider is slidably connected inside the first electric guide rail. Through the cooperation of the second inclined block and the first inclined block, the air inside the piston cylinder can be sprayed to the outside of the scanning lamp through the air blowing column, and the flowing air continuously takes away this heat, reducing the temperature on the surface of the lens, thereby reducing the degree of expansion of the lens material due to heat, and further enabling the device to obtain a relatively accurate image, thus reducing the scanning time and cost and improving the working efficiency of the device. Secondly, when the second slider moves, the rotation of the stirring paddle can stir the molecular sieve inside the filter box, and the stirring reduces the phenomenon of caking of the molecular sieve, thereby increasing the service life of the molecular sieve, and further reducing the maintenance cost of the device.

Description

Technical Field

[0001] The present invention belongs to the technical field of equipment scanning, and specifically relates to a scanner for industrial data acquisition. Background Art

[0002] A scanner for industrial data acquisition is a high-precision device specifically designed to quickly and accurately acquire information such as the geometric shape, dimensions, and position of the surface of an object in an industrial environment. It converts a physical object into a digital three-dimensional model or two-dimensional image through technologies such as laser, structured light, or camera, and is widely used in fields such as quality inspection, reverse engineering, product design, and manufacturing, which can significantly improve production efficiency and quality control levels.

[0003] In the prior art, a scanner for industrial data acquisition obtains the surface signal of an object by emitting laser or structured light, and generates a three-dimensional point cloud or model using principles such as triangulation; the device calibrates environmental parameters in real time, efficiently acquires data through automated path planning, and outputs standardized data for industrial applications after software processing.

[0004] The above solutions still have some problems in actual application. Although the prior art can complete the scanning work of an object, since the device will emit a large amount of heat during long-term operation, the heat will cause the lens material to expand and contract thermally, resulting in changes in parameters such as the radius of curvature and thickness of the lens, and further affecting optical performance indicators such as the focal length, aberration, and chromatic aberration of the lens. For example, the lens may have inaccurate focusing, making the scanned image blurred, or the color reduction degree may decrease, and the image color may deviate. Due to the degradation of the image quality, the same object needs to be scanned multiple times to obtain a clearer and more accurate image, which undoubtedly increases the scanning time and cost and reduces work efficiency. Secondly, since molecular sieves have strong water absorption, after adsorbing a large amount of water vapor, water molecules will form water films on the surface and inside of the molecular sieve particles. As the adsorption amount increases, these water films will gradually connect together, causing viscosity between the molecular sieve particles, and further resulting in agglomeration. And the agglomerated molecular sieve needs to be replaced or regenerated more frequently due to its reduced adsorption performance, which not only increases the maintenance cost, but also causes additional damage to the molecular sieve due to the replacement or regeneration operation, further shortening its overall service life.

[0005] Therefore, the present invention provides a scanner for industrial data acquisition. Summary of the Invention

[0006] In order to make up for the deficiencies of the prior art and solve at least one of the technical problems proposed in the background art.

[0007] The technical solution adopted by the present invention to solve its technical problems is as follows: An industrial data acquisition scanner described in the present invention includes a scanning device, and the scanning device includes a workbench. A first electric guide rail is fixedly connected to the top of the workbench. A first slider is slidably connected inside the first electric guide rail. A scanning lamp is arranged at the lower part of one end of the first slider. A mobile cooling device is arranged on the side of the scanning device;

[0008] The mobile cooling device includes a piston cylinder fixedly arranged on the side of the first slider. A piston piece is slidably arranged inside the piston cylinder. By the up and down movement of the piston piece, the gas in the piston cylinder can be blown to the side of the scanning lamp, so as to achieve the effect of cooling.

[0009] Preferably, the mobile cooling device includes a guide groove. The guide groove is opened on the side of the first slider. A guide block is slidably connected inside the guide groove. A fixed block is fixedly connected to the side of the guide block. The piston cylinder is fixedly connected inside the fixed block.

[0010] Preferably, the piston cylinder is provided with an inner cavity. A first spring is fixedly connected to the top of the inner cavity of the piston cylinder. The other end of the first spring is fixedly connected to the piston piece. A piston rod is fixedly connected to the upper part of the piston piece. The first spring is sleeved on the outer ring surface of the piston rod.

[0011] Preferably, the arrangement of the guide groove and the guide block provides guidance for the movement of the subsequent device. When the piston piece moves downward, the gas inside the piston cylinder can be extruded out.

[0012] Preferably, a first inclined block is fixedly connected to the top of the piston rod. The top of the first inclined block abuts against a second inclined block. The second inclined block is fixed on the top of the first slider.

[0013] Preferably, a baffle is fixedly connected to the side of the first slider. A second spring is fixedly connected to the side of the baffle. The other end of the second spring is fixedly connected to the side of the fixed block. An air suction pipe is fixedly connected through the outer ring surface of the piston cylinder. The other end of the air suction pipe is fixedly connected through a filter box. A filter plate is fixedly connected to the bottom of the filter box. The filter box is fixedly connected to the side of the fixed block. A blowing column is fixedly connected through the bottom of the piston cylinder.

[0014] Preferably, the mobile cooling device further includes a second electric guide rail. The second electric guide rail is fixedly connected to the bottom of the first slider. A second slider is slidably connected inside the second electric guide rail. A push rod is fixedly connected to the side of the second slider.

[0015] Preferably, there are two sets of the second inclined blocks and the first inclined blocks symmetrically distributed with respect to the central axis of the first slider. The elastic force of the second spring is greater than that of the first spring. The inside of the filter box is filled with molecular sieve for filtering humid air. The filter plate is used for filtering dust in the air. In the mobile cooling device, except for the second electric guide rail, the second slider, the first inclined block and the second inclined block, the rest of the mechanisms are symmetrically distributed in two sets with respect to the central axis of the first slider.

[0016] Preferably, a rotating stirring mechanism for stirring is arranged on the side of the mobile cooling device. The bottom of the push rod is fixedly connected with a connecting plate. The bottom of the connecting plate is fixedly connected with a reciprocating rack. The top of the filter box is rotatably connected through the rotation of a rotating rod. The outer ring surface of the rotating rod is fixedly connected with a rotating gear. The bottom of the rotating rod is fixedly connected with a stirring paddle.

[0017] Preferably, the reciprocating rack and the rotating gear are on the same horizontal plane. The reciprocating rack is flush with one side of the push rod. The stirring paddle is used for stirring the molecular sieve inside the filter box.

[0018] The beneficial effects of the present invention are as follows:

[0019] 1. For the scanner for industrial data acquisition of the present invention, when the first spring resets, the air is not drawn into the piston cylinder through the air blowing column, but the air inside the filter box is supplemented into the piston cylinder through the one-way valve between the suction pipe and the piston cylinder. Since the filter plate fixed at the bottom of the filter box can filter the dust in the air outside the filter box, the air that has completed the dust filtration by the filter plate will contact the molecular sieve inside the filter box, and the moisture content in the air can be reduced during the contact, so that relatively clean air can be replenished into the piston cylinder again, avoiding spraying humid and dusty air onto the side of the scanning lamp during the next operation, further reducing the influence on the scanning of the scanning lamp. Through the cooperation of the second inclined block and the first inclined block, the air inside the piston cylinder can be sprayed to the outside of the scanning lamp through the air blowing column, and the flowing air continuously takes away these heats, reducing the surface temperature of the lens, thereby reducing the expansion degree of the lens material due to heat, and then enabling the device to obtain a relatively accurate image, thus reducing the scanning time and cost and improving the working efficiency of the device.

[0020] 2. In the scanner for industrial data acquisition according to the present invention, when the second slider drives the push rod to move, the connecting plate fixed to the bottom thereof will be driven to move synchronously. Since the connecting plate is fixed to the reciprocating rack, the reciprocating rack will perform a synchronous linear motion when the connecting plate moves. At the same time, since the reciprocating rack and the rotating gear are on the same horizontal plane, when the push rod moves, the reciprocating rack will mesh with the rotating gear. However, since the rotating gear is fixed to the outer ring surface of the rotating rod, and the rotating rod rotates inside the filter box, when the reciprocating rack performs a linear motion, it will drive the rotating gear to rotate through the teeth on its side, and simultaneously drive the rotating rod to rotate synchronously. At this time, the stirring paddle fixed to the bottom of the rotating rod will also rotate synchronously. At this time, through the rotation of the stirring paddle, when the second slider moves, the molecular sieve inside the filter box can be stirred, and the phenomenon of caking of the molecular sieve can be reduced by stirring, thereby improving the service life of the molecular sieve, and further reducing the maintenance cost of the equipment. Brief Description of the Drawings

[0021] The present invention will be further described below with reference to the accompanying drawings.

[0022] Figure 1 is the overall structural schematic diagram of a preferred embodiment shown in the present invention;

[0023] Figure 2 is the positional structural schematic diagram of the scanning device and the mobile cooling device shown in the present invention;

[0024] Figure 3 is the three-dimensional structural schematic diagram of the mobile cooling device shown in the present invention;

[0025] Figure 4 is the positional structural schematic diagram of the filter plate and the filter box shown in the present invention;

[0026] Figure 5 is the internal structural schematic diagram of the piston cylinder shown in the present invention;

[0027] Figure 6 is the exploded structural schematic diagram of some components of the mobile cooling device shown in the present invention;

[0028] Figure 7 is the positional structural schematic diagram of the mobile cooling device and the rotating stirring mechanism shown in the present invention;

[0029] Figure 8 is the internal structural schematic diagram of the rotating stirring mechanism shown in the present invention;

[0030] In the figure: 1. Scanning device; 101. Workbench; 102. First electric guide rail; 103. First slider; 104. Scanning lamp;

[0031] 2. Mobile cooling device; 201. Guide groove; 202. Guide block; 203. Fixed block; 204. Piston cylinder; 205. First spring; 206. Piston piece; 207. Piston rod; 208. First inclined block; 209. Second inclined block; 210. Second spring; 211. Baffle; 212. Second electric guide rail; 213. Second slider; 214. Push rod; 215. Suction pipe; 216. Filter box; 217. Filter plate; 218. Blowing column

[0032] 3. Rotating stirring mechanism; 301. Connecting plate; 302. Reciprocating rack; 303. Rotating gear; 304. Rotating rod; 305. Stirring paddle Detailed implementation manners

[0033] In order to make the technical means, creative features, achieved purposes and functions of the present invention easy to understand, the present invention will be further described below in conjunction with the specific implementation manners

[0034] Embodiment 1

[0035] As Figures 1 to 8 shown, a scanner for industrial data acquisition described in an embodiment of the present invention includes a scanning device 1, and the scanning device 1 includes a workbench 101. A first electric guide rail 102 is fixedly connected to the top of the workbench 101. A first slider 103 is slidably connected inside the first electric guide rail 102. A scanning lamp 104 is arranged at the lower part of one end of the first slider 103. A mobile cooling device 2 is arranged on the side of the scanning device 1

[0036] The mobile cooling device 2 includes a piston cylinder 204 fixedly arranged on the side of the first slider 103. A piston piece 206 is slidably arranged inside the piston cylinder 204. By moving the piston piece 206 up and down, the gas in the piston cylinder 204 can be blown to the side of the scanning lamp 104, thereby achieving the effect of cooling

[0037] Specifically, although the prior art can complete the scanning work of an object, since the device will emit a large amount of heat during long-term operation, the heat will cause the lens material to expand and contract thermally, resulting in changes in parameters such as the curvature radius and thickness of the lens, and further affecting optical performance indicators such as the focal length, aberration and chromatic aberration of the lens. For example, the lens will have inaccurate focusing, making the scanned image blurred, or the color reduction degree will decrease, and the image color will deviate. Due to the decrease in image quality, it is necessary to scan the same object multiple times to obtain a clearer and more accurate image, which undoubtedly increases the scanning time and cost and reduces the work efficiency

[0038] Therefore, the present invention solves this problem by setting corresponding structures. A scanner for industrial data acquisition described in the present invention, when collecting data on industrial products, will first place the product on the top of the workbench 101 and adjust the height of the first slider 103 through the first electric guide rail 102. When the first slider 103 moves to a suitable height, the scanning lamp 104 will be activated to scan the product. However, since the device will emit a large amount of heat during long-term operation, the heat will cause the lens material to expand and contract thermally, resulting in changes in parameters such as the radius of curvature and thickness of the lens, thereby affecting optical performance indicators such as the focal length, aberration, and chromatic aberration of the lens. For example, the lens may have inaccurate focusing, making the scanned image blurred, or the color reduction degree may decrease, and the image color may deviate. Due to the degradation of the image quality, it is necessary to scan the same object multiple times to obtain a clearer and more accurate image, which undoubtedly increases the scanning time and cost and reduces the work efficiency. At this time, the reciprocating up and down movement of the piston piece 206 can slowly blow the gas inside the piston cylinder 204 to the outside of the lens of the scanning lamp 104, thereby increasing the cooling speed of the scanning lamp 104, reducing the scanning time and cost, and improving the work efficiency of the device.

[0039] Embodiment 2

[0040] As Figures 2 to 8 shown, compared with Embodiment 1, another implementation manner of the present invention is as follows:

[0041] As Figure 2 and Figure 6 shown, the mobile cooling device 2 described in this embodiment further includes a second electric guide rail 212. The second electric guide rail 212 is fixedly connected to the bottom of the first slider 103. A second slider 213 is slidably connected inside the second electric guide rail 212, and a push rod 214 is fixedly connected to the side of the second slider 213.

[0042] Specifically, when the scanning lamp 104 starts to work, the second electric guide rail 212 fixed to the lower part of the first slider 103 is activated. At this time, the second electric guide rail 212 will drive the second slider 213 sliding inside it to perform a linear motion. When the second slider 213 performs a linear motion, it will synchronously drive the push rod 214 fixed to its side to perform a synchronous motion, thereby providing corresponding power support for subsequent work.

[0043] As Figure 2 shown, the mobile cooling device 2 described in this embodiment includes a guide groove 201. The guide groove 201 is opened on the side of the first slider 103. A guide block 202 is slidably connected inside the guide groove 201. A fixed block 203 is fixedly connected to the side of the guide block 202, and a piston cylinder 204 is fixedly connected inside the fixed block 203.

[0044] As Figure 5 shown, an inner cavity is provided in the piston cylinder 204 of this embodiment. A first spring 205 is fixedly connected to the top of the inner cavity of the piston cylinder 204. The other end of the first spring 205 is fixedly connected to a piston piece 206. A piston rod 207 is fixedly connected to the upper part of the piston piece 206. The first spring 205 is sleeved on the outer circumferential surface of the piston rod 207.

[0045] As Figure 5 and Figure 6 shown, a first inclined block 208 is fixedly connected to the top of the piston rod 207 of this embodiment. The top of the first inclined block 208 abuts against a second inclined block 209. The second inclined block 209 is fixed to the top of the first slider 103.

[0046] As Figure 4 and Figure 6 shown, a baffle 211 is fixedly connected to the side of the first slider 103 of this embodiment. A second spring 210 is fixedly connected to the side of the baffle 211. The other end of the second spring 210 is fixedly connected to the side of the fixed block 203. An air suction pipe 215 is fixedly connected through the outer circumferential surface of the piston cylinder 204. The other end of the air suction pipe 215 is fixedly connected through a filter box 216. A filter plate 217 is fixedly connected to the bottom of the filter box 216. The filter box 216 is fixedly connected to the side of the fixed block 203. A blowing column 218 is fixedly connected through the bottom of the piston cylinder 204.

[0047] Specifically, when the second slider 213 moves linearly, the push rod 214 will also move synchronously. During the movement, the transverse rod on its side will abut against the fixed block 203. At this time, the second slider 213 will continue to move, and while moving, it will push the fixed block 203 and the guide block 202 to move linearly along the guidance of the guide groove 201, so as to drive the piston cylinder 204 inside the fixed block 203 to move synchronously;

[0048] When the piston cylinder 204 moves, it will drive all the components inside it and the first inclined block 208 to move synchronously. Since the sides of the second inclined block 209 that abut against the first inclined block 208 are both inclined structures, when the fixed block 203 moves, the first inclined block 208 will gradually move downward, and while moving, it will drive the piston rod 207 fixed to its bottom to move synchronously, thereby being able to drive the piston piece 206 to move. And while moving, it will slowly blow the air inside the piston cylinder 204 to the lens surface of the scanning lamp 104 through the air blowing column 218. However, since the first inclined block 208 and the second inclined block 209 are distributed oppositely with respect to the central axis of the first slider 103, when the second slider 213 moves towards the scanning lamp 104, the other set of mobile cooling devices 2 will not blow air to the scanning lamp 104. Thus, while improving the heat dissipation of the device, it can also avoid the situation where two sets of opposite airflows collide with each other, resulting in an air vortex, thereby reducing the impact on the scanning lamp 104. At this time, the second spring 210 is in a compressed state;

[0049] When the mobile cooling device 2 finishes the air jetting work, the second slider 213 will move away from the scanning lamp 104. At this time, the second spring 210 will gradually reset because it is not subjected to external extrusion. Synchronously, it will push the fixed block 203 to move. And while moving, the first inclined block 208 will move from the lower end to the higher end of the inclined structure of the second inclined block 209. So at this time, the first spring 205 will also perform a synchronous reset work. Since a one-way valve is provided at the junction of the air blowing column 218 and the piston cylinder 204, when the first spring 205 resets, the air will not be sucked into the piston cylinder 204 through the air blowing column 218, but the air inside the filter box 216 will be supplemented into the piston cylinder 204 through the one-way valve between the air suction pipe 215 and the piston cylinder 204. Since the filter plate 217 fixed to the bottom of the filter box 216 can filter the dust in the air outside the filter box 216, the air that has completed dust filtration through the filter plate 217 will come into contact with the molecular sieve inside the filter box 216, and while contacting, it can reduce the moisture content in the air. Thus, relatively clean air can be replenished into the piston cylinder 204 again, avoiding spraying moist and dusty air to the side of the scanning lamp 104 during the next operation, and further reducing the impact on the scanning of the scanning lamp 104. Through the cooperation of the second inclined block 209 and the first inclined block 208, the air inside the piston cylinder 204 can be sprayed to the outside of the scanning lamp 104 through the air blowing column 218, and the flowing air can continuously take away this heat, reducing the temperature of the lens surface, thereby reducing the degree of expansion of the lens material due to heat, and thus enabling the device to obtain a more accurate image, thereby reducing the scanning time and cost and improving the working efficiency of the device.

[0050] Such as Figure 7 AndFigure 8 As shown in the figure, a rotating stirring mechanism 3 for stirring is arranged on the side of the mobile cooling device 2 in this embodiment. A connecting plate 301 is fixedly connected to the bottom of the push rod 214. A reciprocating rack 302 is fixedly connected to the bottom of the connecting plate 301. A rotating rod 304 is rotatably connected through the top of the filter box 216. A rotating gear 303 is fixedly connected to the outer ring surface of the rotating rod 304. A stirring paddle 305 is fixedly connected to the bottom of the rotating rod 304.

[0051] Specifically, when the second slider 213 drives the push rod 214 to move, it will synchronously drive the connecting plate 301 fixed to its bottom to move. Since the connecting plate 301 and the reciprocating rack 302 are fixed, the reciprocating rack 302 will also perform synchronous linear motion when the connecting plate 301 moves. At the same time, since the reciprocating rack 302 and the rotating gear 303 are on the same horizontal plane, when the push rod 214 moves, the reciprocating rack 302 will mesh with the rotating gear 303. However, since the rotating gear 303 is fixed to the outer ring surface of the rotating rod 304 and the rotating rod 304 rotates inside the filter box 216, when the reciprocating rack 302 performs linear motion, it will drive the rotating gear 303 to rotate through the teeth on its side, and simultaneously drive the rotating rod 304 to rotate. At this time, the stirring paddle 305 fixed to the bottom of the rotating rod 304 will also rotate synchronously. At this time, through the rotation of the stirring paddle 305, when the second slider 213 moves, it can stir the molecular sieve inside the filter box 216, and reduce the phenomenon of molecular sieve caking through stirring, thereby improving the service life of the molecular sieve, and further reducing the maintenance cost of the equipment.

[0052] Working principle: When the scanning lamp 104 starts to work, the second electric guide rail 212 fixed to the lower part of the first slider 103 is started. At this time, the second electric guide rail 212 will drive the second slider 213 sliding inside it to perform linear motion. When the second slider 213 performs linear motion, it will synchronously drive the push rod 214 fixed to its side to perform synchronous motion, thereby providing corresponding power support for subsequent work.

[0053] When the second slider 213 performs linear motion, the push rod 214 will also perform synchronous motion. During the motion, the transverse rod on its side will abut against the fixed block 203. At this time, the second slider 213 will continue to move, and while moving, it will push the fixed block 203 and the guide block 202 to perform linear motion along the guide of the guide groove 201, thereby driving the piston cylinder 204 inside the fixed block 203 to perform synchronous motion;

[0054] When the piston cylinder 204 moves, it will drive all the components inside it and the first oblique block 208 to move synchronously. Since the side of the second oblique block 209 that abuts against the first oblique block 208 is an oblique structure, when the fixed block 203 moves, the first oblique block 208 will gradually move downward, and at the same time drive the piston rod 207 fixed at its bottom to move synchronously, thereby driving the piston plate 206 to move, and at the same time, the air inside the piston cylinder 204 will be slowly blown to the lens surface of the scanning lamp 104 through the blowing column 218. However, since the first oblique block 208 and the second oblique block 209 are oppositely distributed about the central axis of the first slider 103, when the second slider 213 moves toward the scanning lamp 104, the other group of mobile cooling devices 2 will not blow air to the scanning lamp 104, thereby improving the heat dissipation of the equipment while avoiding the situation where the two groups of relative airflows collide with each other to cause airflow vortices, thereby reducing the impact on the scanning lamp 104. At this time, the second spring 210 is in a compressed state;

[0055] When the mobile cooling device 2 completes the jetting work, the second slider 213 will move in the direction away from the scanning lamp 104. At this time, the second spring 210 will gradually reset due to the lack of external force, and will synchronously push the fixed block 203 to move. While moving, the first oblique block 208 will move from the lower end of the oblique structure of the second oblique block 209 to the higher end. Therefore, at this time, the first spring 205 will also perform synchronous reset work. Since a one-way valve is provided at the junction of the blowing column 218 and the piston cylinder 204, when the first spring 205 is reset, the air will not be drawn into the piston cylinder 204 through the blowing column 218, but the air inside the filter box 216 will be supplemented into the piston cylinder 204 through the one-way valve between the suction pipe 215 and the piston cylinder 204. Since the filter plate 217 fixed at the bottom of the filter box 216 can remove the powder in the air The dust is filtered outside the filter box 216, and the air that has completed the dust filtration through the filter plate 217 will come into contact with the molecular sieve inside the filter box 216, and the moisture content in the air can be reduced while in contact, so that cleaner air can be replenished into the piston cylinder 204, avoiding the moist and dusty air from being sprayed to the side of the scanning lamp 104 during the next operation, further reducing the impact on the scanning of the scanning lamp 104, and through the cooperation of the second oblique block 209 and the first oblique block 208, the air inside the piston cylinder 204 can be sprayed to the outside of the scanning lamp 104 through the blowing column 218, and the heat is continuously taken away by the flowing air, so that the surface temperature of the lens is reduced, thereby reducing the expansion degree of the lens material due to heat, and then enabling the equipment to obtain more accurate images, thereby reducing the scanning time and cost, and improving the working efficiency of the equipment.

[0056] When the second slider 213 drives the push rod 214 to move, it will synchronously drive the connecting plate 301 fixed to its bottom to move. Since the connecting plate 301 is fixed to the reciprocating rack 302, when the connecting plate 301 moves, the reciprocating rack 302 will also perform synchronous linear motion. At the same time, since the reciprocating rack 302 and the rotating gear 303 are on the same horizontal plane, when the push rod 214 moves, the reciprocating rack 302 will mesh with the rotating gear 303. However, since the rotating gear 303 is fixed to the outer ring surface of the rotating rod 304 and the rotating rod 304 rotates inside the filter box 216, when the reciprocating rack 302 performs linear motion, it will drive the rotating gear 303 to rotate through the teeth on its side, and simultaneously drive the rotating rod 304 to rotate. At this time, the stirring paddle 305 fixed to the bottom of the rotating rod 304 will also rotate synchronously. At this time, through the rotation of the stirring paddle 305, when the second slider 213 moves, the molecular sieve inside the filter box 216 can be stirred, and the phenomenon of caking of the molecular sieve can be reduced by stirring, thereby improving the service life of the molecular sieve, and further reducing the maintenance cost of the equipment.

[0057] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification only illustrates the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. An industrial data acquisition scanner, comprising a scanning device (1), the scanning device (1) comprising a workbench (101), a first electric guide rail (102) fixedly connected to the top of the workbench (101), a first slider (103) slidably connected inside the first electric guide rail (102), and a scanning lamp (104) arranged at the lower part of one end of the first slider (103), characterized in that; A mobile cooling device (2) is provided on the side of the scanning device (1); The mobile cooling device (2) includes a piston cylinder (204) fixedly arranged on the side of the first slider (103). A piston piece (206) is slidably arranged inside the piston cylinder (204). By moving the piston piece (206) up and down, the gas inside the piston cylinder (204) can be blown to the side of the scanning lamp (104), thereby achieving the effect of cooling; The piston cylinder (204) is provided with an inner cavity. A first spring (205) is fixedly connected to the top of the inner cavity of the piston cylinder (204). The other end of the first spring (205) is fixedly connected to a piston piece (206). A piston rod (207) is fixedly connected to the upper part of the piston piece (206). The first spring (205) is sleeved on the outer ring surface of the piston rod (207); The top of the piston rod (207) is fixedly connected to a first inclined block (208). The top of the first inclined block (208) abuts against a second inclined block (209). The second inclined block (209) is fixed to the top of the first slider (103); A baffle (211) is fixedly connected to the side of the first slider (103). A second spring (210) is fixedly connected to the side of the baffle (211). The other end of the second spring (210) is fixedly connected to the side of a fixed block (203). An air suction pipe (215) is fixedly connected through the outer ring surface of the piston cylinder (204). The other end of the air suction pipe (215) is fixedly connected through a filter box (216). A filter plate (217) is fixedly connected to the bottom of the filter box (216). The filter box (216) is fixedly connected to the side of the fixed block (203). A blowing column (218) is fixedly connected through the bottom of the piston cylinder (204); A rotating stirring mechanism (3) for stirring is provided on the side of the mobile cooling device (2). A connecting plate (301) is fixedly connected to the bottom of the push rod (214). A reciprocating rack (302) is fixedly connected to the bottom of the connecting plate (301). A rotating rod (304) is rotatably connected through the top of the filter box (216). A rotating gear (303) is fixedly connected to the outer ring surface of the rotating rod (304). A stirring paddle (305) is fixedly connected to the bottom of the rotating rod (304); The reciprocating rack (302) and the rotating gear (303) are in the same horizontal plane. The reciprocating rack (302) is flush with one side of the push rod (214). The stirring paddle (305) is used for stirring the molecular sieve inside the filter box (216).

2. The industrial data acquisition scanner according to claim 1, wherein: The mobile cooling device (2) includes a guide groove (201). The guide groove (201) is opened on the side of the first slider (103). A guide block (202) is slidably connected inside the guide groove (201). A fixed block (203) is fixedly connected to the side of the guide block (202). A piston cylinder (204) is fixedly connected inside the fixed block (203).

3. The scanner for industrial data acquisition according to claim 2, wherein: The arrangement of the guiding groove (201) and the guiding block (202) provides guidance for the subsequent movement of the device. When the piston piece (206) moves downward, it can extrude the gas inside the piston cylinder (204).

4. The scanner for industrial data acquisition according to claim 3, characterized in that: The mobile cooling device (2) further includes a second electric guide rail (212). The second electric guide rail (212) is fixedly connected to the bottom of the first slider (103). A second slider (213) is slidably connected inside the second electric guide rail (212), and a push rod (214) is fixedly connected to the side of the second slider (213).

5. The scanner for industrial data acquisition according to claim 4, characterized in that: There are two sets of the second inclined block (209) and the first inclined block (208) symmetrically distributed with respect to the central axis of the first slider (103). The elastic force of the second spring (210) is greater than that of the first spring (205). The inside of the filter box (216) is filled with molecular sieves for filtering humid air, and the filter plate (217) is used for filtering dust in the air. Except for the second electric guide rail (212), the second slider (213), the first inclined block (208), and the second inclined block (209), the remaining mechanisms in the mobile cooling device (2) are symmetrically distributed in two sets with respect to the central axis of the first slider (103).

Images