Processing subsequent detection system for graphene warming mulching film

Abstract

The invention discloses a subsequent processing detection system for a graphene warming mulching film, and relates to the technical field of mulching film detection. A porous integration frame is mounted at the top end of a fixed operation frame, a plurality of lifting hydraulic cylinders are clamped to one end of the porous integration frame at equal intervals, and a pressing treatment frame is mounted at the top ends of the lifting hydraulic cylinders; a plurality of sealing electric push rods are installed at the top end of the press-fit processing frame in an embedded mode at equal intervals, press-fit hollow blocks are installed at the bottom ends of the multiple sealing electric push rods, a plurality of impact hydraulic cylinders are clamped to one side of the top end of the fixed operation frame at equal intervals, and an impact operation frame is installed at the top ends of the multiple impact hydraulic cylinders. According to the invention, the test of different positions and different strengths is carried out, the external damage resistance of the mulching film is synchronously and effectively processed, and the simultaneous test limitation is carried out by using single equipment, so that the test efficiency and speed are improved, multiple groups do not interfere with each other, and the accuracy of the test result is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of ground film detection, and in particular to a post-processing detection system for a graphene warming ground film. Background Art

[0002] Graphene warming mulch is a new type of agricultural material that combines the excellent photothermal conversion properties of graphene. It is mainly used to increase soil temperature, retain moisture, and promote crop growth. Its main technical principle is that graphene has high light absorption ability in a wide spectrum range from ultraviolet to near-infrared, which can efficiently convert solar energy into thermal energy, thereby increasing the soil temperature under the mulch. After absorbing heat, the graphene mulch releases heat energy in the form of far-infrared, evenly heating the soil, reducing local temperature differences, and at the same time improving the soil microbial environment and promoting root development.

[0003] However, when testing graphene warming films, most existing equipment can only perform single-type detection processing, resulting in the need to replace different equipment when conducting different tests on graphene warming films, and repeated loading and unloading processing is required, which greatly affects the efficiency of the test. Summary of the Invention

[0004] The present invention provides a post-processing detection system for graphene warming ground film, which can effectively solve the problem raised in the above background technology that when testing the graphene warming ground film, most of the existing equipment can only perform a single type of detection processing, resulting in the need to replace different equipment when performing different tests on the graphene warming ground film, and repeated loading and unloading processing is required, which greatly affects the efficiency of the test.

[0005] To achieve the above-mentioned object, the present invention provides the following technical solutions: a graphene warming ground film processing and subsequent detection system, comprising a fixed operating frame, wherein a multi-measurement linkage component is provided on the top of the fixed operating frame;

[0006] The multi-measurement linkage assembly includes a multi-hole integrated frame;

[0007] A multi-hole integrated frame is installed on the top of the fixed operating frame, and a plurality of lifting hydraulic cylinders are equidistantly connected to one end of the multi-hole integrated frame, and a pressing processing frame is installed on the top of the plurality of lifting hydraulic cylinders;

[0008] A plurality of sealed electric push rods are equidistantly embedded and installed at the top of the pressing processing frame, and a pressing hollow block is installed at the bottom end of the plurality of sealed electric push rods;

[0009] A plurality of impact hydraulic cylinders are equidistantly connected to one side of the top of the fixed operating frame, and an impact operating frame is installed on the top of the plurality of impact hydraulic cylinders;

[0010] An adjustment electric push rod is installed inside the impact operation frame, and a puncture fixing block is installed on the top of the adjustment electric push rod;

[0011] A plurality of pressing hydraulic cylinders are installed at the middle of the top of the fixed operating frame, and a semicircular extrusion block is installed at the top of the plurality of pressing hydraulic cylinders.

[0012] According to the above technical solution, the bottom end of the pressing processing frame is engaged with the top end of the porous integration frame, and the pressing hollow block is slidably installed inside the pressing processing frame, and the bottom end of the pressing hollow block is in contact with the top end of the porous integration frame.

[0013] According to the above technical solution, the inner side of the porous integration frame and one end of the inner side of the pressing processing frame are both clamped with an isolation and restriction sleeve, the top of the pressing processing frame is equipped with a sunlight simulation lamp, and a number of light detectors are equidistantly installed on the inner side of the porous integration frame at the position corresponding to the isolation and restriction sleeve;

[0014] A flat pull processing frame is installed on the top of the fixed operating frame, and flat pull hydraulic cylinders are symmetrically installed on the top of the inner side of the flat pull processing frame. One end of the two flat pull hydraulic cylinders is installed with a flat pull limit frame;

[0015] A pressing motor is installed at one end of the horizontal pull limit frame through a motor seat, and a horizontal pressing combination plate is clamped on the output shaft of the pressing motor;

[0016] One end of the pressing processing frame is equidistantly connected with a plurality of positioning electric push rods, the bottom ends of the positioning electric push rods are installed with a positioning processing plate, and the top end of the porous integration frame is sleeved with an electrostatic adsorption ring.

[0017] According to the above technical solution, the impact operation frame and the semicircular extrusion block are both slidably installed on the inner side of the porous integration frame, the puncture fixing block is slidably installed on the inner side of the impact operation frame, and the diameter of the semicircular extrusion block is smaller than the inner diameter of the porous integration frame.

[0018] According to the above technical solution, the horizontal pull limiting frame and the horizontal pull processing frame are slidably fitted together, and the longitudinal section of the horizontal pressing combination plate is L-shaped.

[0019] According to the above technical solution, the side end of the positioning processing plate is slidably connected to the pressing processing frame;

[0020] The input ends of the lifting hydraulic cylinder, the sealing electric push rod, the impact hydraulic cylinder, the adjustment electric push rod, the pressing hydraulic cylinder, the sunlight simulation lamp, the light detector, the horizontal pulling hydraulic cylinder, the pressing motor and the positioning electric push rod are all electrically connected to the output end of the external controller;

[0021] The input terminal of the external controller is electrically connected to the output terminal of the external power supply.

[0022] According to the above technical solution, a traction and discharge assembly is provided at the side end of the fixed operating frame;

[0023] The traction and unloading assembly includes a processing operation frame;

[0024] One end of the fixed operation frame is slidably connected with a processing operation frame, and a reciprocating electric slide rail is embedded at the bottom end of the processing operation frame;

[0025] A plurality of alignment electric push rods are installed at the top end of the processing operation frame, and an alignment integration frame is clamped at the bottom ends of the plurality of alignment electric push rods;

[0026] One end of the alignment integration frame is installed with a winding and unwinding motor through a motor base, and a winding fixing rod is clamped on the output shaft of the winding and unwinding motor;

[0027] The alignment integration frame is equidistantly installed with flattening electric push rods at the top end, a flattening processing frame is installed at the bottom ends of the plurality of flattening electric push rods, and a flattening roller is rotatably connected to the side end of the flattening processing frame;

[0028] A traction processing frame is slidably connected to the side end of the fixed operation frame, a traction electric slide rail is installed at the side end of the traction processing frame, and a plurality of traction electric push rods are equidistantly installed at the top end of the traction processing frame.

[0029] According to the above technical solution, the reciprocating electric slide rail is connected with the fixed operation frame through a slide rail base, the alignment integration frame is slidably installed on the side end of the processing operation frame, and the winding fixing rod is rotatably installed inside the alignment integration frame.

[0030] According to the above technical solution, a traction processing plate is installed at the bottom ends of the plurality of traction electric push rods, a traction motor is installed at one end of the traction processing plate through a motor base, and a traction clamping plate is clamped on the output shaft of the traction motor;

[0031] The flattening processing frame and the flattening roller are slidably installed inside the alignment integration frame, and one end of the traction electric slide rail is connected with one end of the fixed operation frame through a slide rail base.

[0032] According to the above technical solution, the longitudinal section of the traction clamping plate is in a C shape;

[0033] The input ends of the reciprocating electric slide rail, the alignment electric push rods, the winding and unwinding motor, the flattening electric push rods, the traction electric slide rail, the traction electric push rods and the traction motor are all electrically connected to the output end of an external controller.

[0034] Compared with the prior art, the beneficial effects of the present invention are: The structure of the present invention is scientific and reasonable, and it is safe and convenient to use:

[0035] 1. A multi-measurement linkage component is provided. The number and position of the puncture fixing blocks are adjusted by adjusting the electric push rod. The puncture strength is adjusted according to the actual test strength. The impact hydraulic cylinder drives the impact operating frame and the puncture fixing block to puncture the ground film to test its puncture resistance. The pressing hydraulic cylinder and the semicircular extrusion block push the film from the center point to both sides, and the circular fitting extrusion rises to test its tensile and compressive resistance from the center point to both sides. The ground film is pulled by the flat pulling hydraulic cylinder, the flat pulling limit frame and the flat pressing combination plate. The positioning electric push rod drives the positioning processing plate to press one end of the ground film. The horizontal tensile traction is used to test the flat pulling extension and tensile strength of the ground film. Multiple groups of tests are carried out simultaneously, and tests at different positions and different strengths are carried out. The ground film's resistance to external damage is synchronously and effectively processed. A single device is used to limit simultaneous tests, thereby improving the efficiency and speed of the test, and multiple groups do not interfere with each other, thereby improving the accuracy of the test results.

[0036] The pressing frame is driven by a lifting hydraulic cylinder to move, and the pressing hollow block is driven by a sealed electric push rod to move. The porous integrated frame and the pressing hollow block are used to press the ground film flat, so as to achieve steady control of material in and out and steady restriction of the edge of the ground film during testing, avoiding mutual interference between multiple groups of tests. At the same time, the edge is pressed to improve the stability of the ground film fixation. Light simulation is carried out by a sunlight simulation lamp, and light isolation detection is carried out with a light detector and an isolation restriction sleeve to test its light transmittance. This makes it possible to avoid repeated loading and unloading during testing, reducing the tediousness of the staff's operation, and at the same time, multiple groups of tests are carried out at a time to improve the test efficiency.

[0037] 2. A traction and unloading component is provided. The ground film roll is inserted into the side end of the winding fixed rod. The traction motor drives the traction clamping plate to rotate. The traction processing plate and the traction clamping plate are used to clamp and fix the ground film. The flattening electric push rod drives the flattening processing frame and the flattening roller to flatten and position the ground film. The reciprocating electric slide rail drives the processing operation frame to move. The traction electric slide rail drives the traction processing frame to move, and the ground film is placed on the top of the porous integrated frame. The winding fixed rod is driven by the retracting and unwinding motor to rotate to retract and unwind the ground film, and the ground film is flattened to achieve uniform and flat unloading processing, ensure the stability of the unloading position and the flatness of the ground film placement, realize steady feeding processing, and realize rapid discharge processing through direct reeling and traction, ensure the stability and speed of material input and output, reduce the operating steps of the staff, and improve the processing efficiency.

[0038] In summary, by cooperating with the multi-measurement linkage component and the traction and discharge component, the material is discharged by traction to ensure the overall flatness of the ground film during placement, avoiding errors in the test results due to unevenness or bulging of the ground film. At the same time, with the cooperation of multiple sets of pressing components, rapid pressing and positioning can be achieved after flat placement, avoiding secondary deviation and detachment of the film, further improving the stability of the test, reducing the operating steps and labor intensity of the staff, and increasing the speed of the test. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0040] In the attached figure:

[0041] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0042] Figure 2 It is a structural diagram of the multi-measurement linkage component of the present invention;

[0043] Figure 3 It is a schematic diagram of the installation structure of the pressing processing frame of the present invention;

[0044] Figure 4 It is a schematic diagram of the installation structure of the light detector of the present invention;

[0045] Figure 5 This is a schematic diagram of the installation structure of the horizontal pull limit frame of the present invention;

[0046] Figure 6 It is a structural schematic diagram of the traction and unloading assembly of the present invention;

[0047] Figure 7 It is a schematic diagram of the installation structure of the processing operation frame of the present invention;

[0048] Figure 8 It is a schematic diagram of the installation structure of the traction electric slide rail of the present invention;

[0049] Numbers in the figure: 1, fixed operating frame;

[0050] 2. Multi-measurement linkage assembly; 201. Multi-hole integration frame; 202. Lifting hydraulic cylinder; 203. Pressing frame; 204. Sealing electric push rod; 205. Pressing hollow block; 206. Impact hydraulic cylinder; 207. Impact operating frame; 208. Adjusting electric push rod; 209. Puncture fixing block; 210. Pressing hydraulic cylinder; 211. Semicircular extrusion block; 212. Isolation and limiting sleeve; 213. Sunlight simulation lamp; 214. Light detector; 215. Horizontal pulling frame; 216. Horizontal pulling hydraulic cylinder; 217. Horizontal pulling limit frame; 218. Pressing motor; 219. Horizontal pressing assembly plate; 220. Positioning electric push rod; 221. Positioning processing plate; 222. Electrostatic adsorption ring;

[0051] 3. Traction and unloading assembly; 301. Processing operation frame; 302. Reciprocating electric slide; 303. Alignment electric push rod; 304. Alignment integration frame; 305. Retracting and discharging motor; 306. Winding fixing rod; 307. Flattening electric push rod; 308. Flattening processing frame; 309. Flattening roller; 310. Traction processing frame; 311. Traction electric slide; 312. Traction electric push rod; 313. Traction processing plate; 314. Traction motor; 315. Traction clamping plate. DETAILED DESCRIPTION

[0052] The preferred embodiments of the present invention are described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0053] Example: Figure 1-8 As shown, the present invention provides a technical solution, a graphene warming film processing and subsequent detection system, comprising a fixed operating frame 1, a top of which is provided with a multi-measurement linkage component 2;

[0054] The multi-measurement linkage assembly 2 includes a multi-hole integration frame 201, a lifting hydraulic cylinder 202, a pressing processing frame 203, a sealing electric push rod 204, a pressing hollow block 205, an impact hydraulic cylinder 206, an impact operation frame 207, an adjustment electric push rod 208, a puncture fixing block 209, a pressing hydraulic cylinder 210, a semicircular extrusion block 211, an isolation and limiting sleeve 212, a sunlight simulation lamp 213, a light detector 214, a horizontal pulling processing frame 215, a horizontal pulling hydraulic cylinder 216, a horizontal pulling limit frame 217, a pressing motor 218, a horizontal pressing combination plate 219, a positioning electric push rod 220, a positioning processing plate 221 and an electrostatic adsorption ring 222;

[0055] A porous integration frame 201 is installed on the top of the fixed operation frame 1. The bottom end of the pressing hollow block 205 is in contact with the top of the porous integration frame 201 to ensure the stability of the pressing alignment and pressing limit. A plurality of lifting hydraulic cylinders 202 are equidistantly connected to one end of the porous integration frame 201. A pressing processing frame 203 is installed on the top of the plurality of lifting hydraulic cylinders 202.

[0056] Several sealed electric push rods 204 are equidistantly embedded in the top of the pressing processing frame 203, and a pressing hollow block 205 is installed at the bottom of the multiple sealed electric push rods 204. The bottom end of the pressing processing frame 203 is engaged with the top of the porous integration frame 201, and the pressing hollow block 205 is slidably installed on the inner side of the pressing processing frame 203 to achieve alignment and alignment, ensuring the stability of overall movement and limit.

[0057] A plurality of impact hydraulic cylinders 206 are equidistantly connected to one side of the top of the fixed operating frame 1, and an impact operating frame 207 is installed on the top of the plurality of impact hydraulic cylinders 206;

[0058] An adjustment push rod 208 is installed inside the impact operating frame 207, and a puncture fixing block 209 is installed on the top of the adjustment push rod 208. The puncture fixing block 209 is slidably installed inside the impact operating frame 207 to ensure the stability of the puncture position and puncture adjustment;

[0059] Several pressing hydraulic cylinders 210 are installed in the middle of the top of the fixed operating frame 1. Semicircular extrusion blocks 211 are installed on the top of the multiple pressing hydraulic cylinders 210. The diameter of the semicircular extrusion block 211 is smaller than the inner diameter of the porous integration frame 201 to achieve steady pressing and stretching. The impact operating frame 207 and the semicircular extrusion block 211 are both slidably installed on the inner side of the porous integration frame 201 to achieve steady alignment and extrusion processing, thereby ensuring the stability of the test alignment;

[0060] An isolation and restriction sleeve 212 is attached to the inner side of the porous integration frame 201 and one end of the inner side of the pressing processing frame 203. A sunlight simulation lamp 213 is installed on the top of the pressing processing frame 203. Several light detectors 214 are equidistantly installed on the inner side of the porous integration frame 201 at the positions corresponding to the isolation and restriction sleeve 212.

[0061] A flat pull processing frame 215 is installed on the top of the fixed operating frame 1, and a flat pull hydraulic cylinder 216 is symmetrically installed on the top of the inner side of the flat pull processing frame 215. A flat pull limit frame 217 is installed on one end of the two flat pull hydraulic cylinders 216;

[0062] A pressing motor 218 is installed at one end of the horizontal pull limit frame 217 through the motor seat. The output shaft of the pressing motor 218 is clamped with a horizontal pressure combination plate 219. The horizontal pull limit frame 217 is slidably fitted with the horizontal pull processing frame 215. The longitudinal section of the horizontal pressure combination plate 219 is L-shaped, which realizes steady pressing and traction, realizes stretching processing, and ensures the stability and accuracy of the test.

[0063] A plurality of positioning electric push rods 220 are equidistantly connected to one end of the pressing processing frame 203. A positioning processing plate 221 is installed at the bottom end of the positioning electric push rod 220. The side end of the positioning processing plate 221 is slidably connected to the pressing processing frame 203 to ensure the stability of the pressing limit and pressing fixation. An electrostatic adsorption ring 222 is sleeved on the top of the porous integration frame 201.

[0064] For stable operation of the equipment, the input ends of the lifting hydraulic cylinder 202, the sealing electric push rod 204, the impact hydraulic cylinder 206, the adjustment electric push rod 208, the pressing hydraulic cylinder 210, the sunlight simulation lamp 213, the light detector 214, the horizontal pulling hydraulic cylinder 216, the pressing motor 218 and the positioning electric push rod 220 are all electrically connected to the output end of the external controller;

[0065] The input terminal of the external controller is electrically connected to the output terminal of the external power supply.

[0066] A traction and discharge assembly 3 is provided at the side end of the fixed operating frame 1;

[0067] The traction and unloading assembly 3 includes a processing operation frame 301, a reciprocating electric slide 302, an alignment electric push rod 303, an alignment integration frame 304, a retracting and discharging motor 305, a winding and fixing rod 306, a flattening electric push rod 307, a flattening processing frame 308, a flattening roller 309, a traction processing frame 310, a traction electric slide 311, a traction electric push rod 312, a traction processing plate 313, a traction motor 314 and a traction clamping plate 315;

[0068] One end of the fixed operating frame 1 is slidably connected to a processing operating frame 301, and a reciprocating electric slide rail 302 is embedded in the bottom end of the processing operating frame 301;

[0069] A plurality of alignment electric push rods 303 are installed on the top of the processing operation frame 301, and an alignment integration frame 304 is clamped at the bottom of the plurality of alignment electric push rods 303. The alignment integration frame 304 is slidably installed on the side of the processing operation frame 301, so that it can quickly switch the alignment and guide support during lifting, moving and pressing.

[0070] A retractable motor 305 is mounted on one end of the alignment integration frame 304 through a motor seat. The output shaft of the retractable motor 305 is clamped with a winding fixing rod 306. The winding fixing rod 306 is rotatably mounted on the inner side of the alignment integration frame 304 to ensure the stability of the retractable and retractable processing.

[0071] Flattening electric push rods 307 are equidistantly installed on the top of the alignment integration frame 304, and a flattening processing frame 308 is installed at the bottom of multiple flattening electric push rods 307. The side end of the flattening processing frame 308 is rotatably connected to a flattening roller 309. The flattening processing frame 308 and the flattening roller 309 are slidably installed on the inner side of the alignment integration frame 304 to perform flattening processing on the graphene warming ground film to achieve stability of positioning restriction and pressing restriction;

[0072] A traction processing frame 310 is slidably connected to one side end of the fixed operation frame 1. A traction electric slide rail 311 is installed on one side end of the traction processing frame 310. The reciprocating electric slide rail 302 and the fixed operation frame 1 are connected through a slide rail seat. One end of the traction electric slide rail 311 and one end of the fixed operation frame 1 are connected through a slide rail seat to achieve stable movement adjustment and feeding and discharging coordination. A number of traction electric push rods 312 are equidistantly installed at the top of the traction processing frame 310;

[0073] The bottom ends of multiple traction electric push rods 312 are installed with a traction processing plate 313. One end of the traction processing plate 313 is installed with a traction motor 314 through a motor seat. The output shaft of the traction motor 314 is clamped with a traction clamping plate 315. The longitudinal section of the traction clamping plate 315 is in a shape of a "匚" to ensure the stability of traction support and traction clamping;

[0074] For the stable operation of the equipment, the input ends of the reciprocating electric slide rail 302, the alignment electric push rod 303, the winding and unwinding motor 305, the flattening electric push rod 307, the traction electric slide rail 311, the traction electric push rod 312 and the traction motor 314 are all electrically connected to the output end of an external controller.

[0075] The working principle and usage process of the present invention: When testing the graphene temperature-increasing ground film, the staff inserts the ground film roll to be tested into the side end of the winding and fixing rod 306, and traction the ground film to move to the bottom of the traction processing plate 313 at the position of the traction processing frame 310. During the traction process, the flattening electric push rod 307 drives the flattening processing frame 308 and the flattening roller 309 to move downwards to fit onto the top of the ground film. The top of the side end of the ground film is in contact with the side end of the flattening roller 309 to achieve moving flattening and positioning processing. The traction motor 314 drives the traction clamping plate 315 to rotate, and the traction processing plate 313 and the traction clamping plate 315 are used to clamp and fix the ground film. The reciprocating electric slide rail 302 drives the processing operation frame 301 to move along the fixed operation frame 1, and the traction electric slide rail 311 drives the traction processing frame 310 to move along the fixed operation frame 1. The lifting hydraulic cylinder 202 drives the pressing processing frame 203 to rise, and the ground film is placed on the top of the porous integration frame 201. At this time, the side end of the ground film is electrostatically adsorbed and combined with the top of the electrostatic adsorption ring 222. The winding and unwinding motor 305 drives the winding and fixing rod 306 to rotate, and pulls the ground film to be placed flat on the top of the porous integration frame 201 to achieve stable placement processing of the ground film;

[0076] At this time, the traction motor 314 drives the traction clamping plate 315 to rotate, and the traction processing plate 313 is rotated and separated from the traction clamping plate 315 to loosen the ground film. At this time, the traction electric slide rail 311 drives the traction processing frame 310, the traction electric push rod 312, the traction processing plate 313 and the traction clamping plate 315 to move, thereby moving the fixed operating frame 1 to achieve transposition processing. After the ground film is placed, the lifting hydraulic cylinder 202 drives the pressing processing frame 203 to press down to the top of the porous integration frame 201, and the sealing electric push rod 204 drives the pressing hollow block 205 to move down and press it to the top of the ground film. The porous integration frame 201 and the pressing hollow block 205 are used to flatten the ground film to achieve steady combination limiting.

[0077] After the pressing and leveling is completed, the electric push rod 208 is adjusted to drive the puncture fixed block 209 to move up and down along the impact operating frame 207, and the number and position of the puncture fixed block 209 are adjusted. The impact operating frame 207 and the puncture fixed block 209 are driven by the impact hydraulic cylinder 206 to rise along the fixed operating frame 1 and the porous integrated frame 201, and the puncture fixed block 209 is used to puncture the ground film to test its pressure resistance when punctured by sharp objects. The semicircular extrusion block 211 is driven to rise by the pressing hydraulic cylinder 210, and the film is gradually attached to the side end of the semicircular extrusion block 211. The circular fitting extrusion is used to rise to test its stretching from the center point to both sides. For the compression resistance, the horizontal pull hydraulic cylinder 216 drives the horizontal pull limit frame 217 to move and fit to the bottom end of the ground film, and the pressing motor 218 drives the horizontal pressure combination plate 219 to rotate. The ground film is clamped and fixed by the horizontal pressure combination plate 219 and the horizontal pull limit frame 217, and the positioning electric push rod 220 drives the positioning processing plate 221 to move downward. The ground film is compressed by the positioning processing plate 221. At this time, the horizontal pull hydraulic cylinder 216 pulls the horizontal pull limit frame 217 and the horizontal pressure combination plate 219 to pull the ground film along the horizontal pull processing frame 215. At this time, the positioning processing plate 221 fixes the ground film to realize the horizontal pulling test of the ground film and test its tensile strength in the horizontal state.

[0078] At the same time, light simulation is performed through the sunlight simulation lamp 213, and light is limited by the isolation limiting sleeve 212, the porous integration frame 201 and the pressing processing frame 203 to ensure that the light does not scatter outward. The sunlight passes through the ground film and shines on the position of the light detector 214. The light intensity is detected by the light detector 214, and the light transmittance detection processing is carried out.

[0079] Finally, it should be noted that the above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art will be able to modify the technical solutions described in the aforementioned embodiments or substitute equivalents for some of the technical features. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention shall be included within the scope of protection of the present invention.

Claims

1. A graphene thermal film processing and subsequent detection system, comprising a fixed operating frame (1), characterized in that: A multi-measurement linkage assembly (2) is provided on the top of the fixed operating frame (1); The multi-measurement linkage assembly (2) comprises a multi-hole integrated frame (201); A multi-hole integration frame (201) is installed on the top of the fixed operation frame (1), and a plurality of lifting hydraulic cylinders (202) are equidistantly connected to one end of the multi-hole integration frame (201), and a pressing processing frame (203) is installed on the top of the plurality of lifting hydraulic cylinders (202); A plurality of sealed electric push rods (204) are equidistantly embedded and installed at the top of the pressing processing frame (203), and a pressing hollow block (205) is installed at the bottom of the plurality of sealed electric push rods (204); A plurality of impact hydraulic cylinders (206) are equidistantly connected to one side of the top of the fixed operating frame (1), and an impact operating frame (207) is installed on the top of the plurality of impact hydraulic cylinders (206); An adjusting electric push rod (208) is installed inside the impact operating frame (207), and a puncture fixing block (209) is installed on the top of the adjusting electric push rod (208); A plurality of pressing hydraulic cylinders (210) are installed at the middle of the top of the fixed operating frame (1), and a semicircular extrusion block (211) is installed at the top of the plurality of pressing hydraulic cylinders (210).

2. The post-processing detection system for a graphene warming ground film according to claim 1 is characterized in that: The bottom end of the pressing processing frame (203) is engaged with the top end of the porous integration frame (201), and the pressing hollow block (205) is slidably installed on the inner side of the pressing processing frame (203), and the bottom end of the pressing hollow block (205) is in contact with the top end of the porous integration frame (201).

3. The post-processing detection system for a graphene warming ground film according to claim 1 is characterized in that: An isolation and restriction sleeve (212) is clamped on one end of the inner side of the multi-hole integration frame (201) and the inner side of the pressing processing frame (203); a sunlight simulation lamp (213) is installed on the top of the pressing processing frame (203); and a plurality of light detectors (214) are equidistantly installed on the inner side of the multi-hole integration frame (201) at positions corresponding to the isolation and restriction sleeve (212); A flat pull processing frame (215) is installed on the top of the fixed operating frame (1), flat pull hydraulic cylinders (216) are symmetrically installed on the top of the inner side of the flat pull processing frame (215), and a flat pull limiting frame (217) is installed on one end of the two flat pull hydraulic cylinders (216); A pressing motor (218) is installed on one end of the horizontal pull limiting frame (217) through a motor seat, and a horizontal pressing combination plate (219) is clamped on the output shaft of the pressing motor (218); A plurality of positioning electric push rods (220) are equidistantly connected to one end of the pressing processing frame (203), a positioning processing plate (221) is installed at the bottom end of the positioning electric push rod (220), and an electrostatic adsorption ring (222) is sleeved on the top end of the porous integration frame (201).

4. The post-processing detection system for a graphene thermal film according to claim 3, characterized in that: The impact operation frame (207) and the semicircular extrusion block (211) are both slidably mounted on the inner side of the porous integrated frame (201), and the puncture fixing block (209) is slidably mounted on the inner side of the impact operation frame (207). The diameter of the semicircular extrusion block (211) is smaller than the inner diameter of the porous integrated frame (201).

5. The post-processing detection system for a graphene warming ground film according to claim 3 is characterized in that: The horizontal pull limiting frame (217) is slidably fitted with the horizontal pull processing frame (215), and the longitudinal section of the horizontal pressing combination plate (219) is L-shaped.

6. The post-processing detection system for a graphene thermal film according to claim 3, characterized in that: The side end of the positioning processing board (221) is slidably connected to the pressing processing frame (203); The input ends of the lifting hydraulic cylinder (202), the sealing electric push rod (204), the impact hydraulic cylinder (206), the adjustment electric push rod (208), the pressing hydraulic cylinder (210), the sunlight simulation lamp (213), the light detector (214), the horizontal pulling hydraulic cylinder (216), the pressing motor (218), and the positioning electric push rod (220) are all electrically connected to the output end of an external controller; The input end of the external controller is electrically connected to the output end of an external power supply.

7. The post-processing detection system for graphene thermal film according to claim 6, characterized in that: A traction feeding component (3) is arranged at the side end of the fixed operation frame (1); The traction feeding component (3) includes a processing operation frame (301); One end of the fixed operation frame (1) is slidably connected to a processing operation frame (301), and a reciprocating electric slide rail (302) is embedded at the bottom end of the processing operation frame (301); A plurality of alignment electric push rods (303) are installed at the top end of the processing operation frame (301), and a bottom end of each of the plurality of alignment electric push rods (303) is clamped to an alignment integration frame (304); A winding and fixing rod (306) is clamped to an output shaft of a winding and unwinding motor (305) whose one end is installed through a motor seat on the alignment integration frame (304); Flattening electric push rods (307) are equidistantly installed at the top end of the alignment integration frame (304), a flattening processing frame (308) is installed at the bottom end of each of the plurality of flattening electric push rods (307), and a flattening roller (309) is rotatably connected to a side end of the flattening processing frame (308); A traction processing frame (310) is slidably connected to the side end of the fixed operation frame (1), a traction electric slide rail (311) is installed at the side end of the traction processing frame (310), and a plurality of traction electric push rods (312) are equidistantly installed at the top end of the traction processing frame (310).

8. The post-processing detection system for graphene thermal membrane according to claim 7, characterized in that: The reciprocating electric slide rail (301) is connected to the fixed operation frame (1) through a slide rail seat, the alignment integration frame (304) is slidably installed at the side end of the processing operation frame (301), and the winding and fixing rod (306) is rotatably installed inside the alignment integration frame (304).

9. The post-processing detection system for graphene thermal membrane according to claim 7, characterized in that: A traction processing board (313) is installed at the bottom end of each of the plurality of traction electric push rods (312), a traction motor (314) is installed through a motor seat at one end of the traction processing board (313), and a traction clamping board (315) is clamped to an output shaft of the traction motor (314); The flattening processing frame (308) and the flattening roller (309) are slidably installed inside the alignment integration frame (304), and one end of the traction electric slide rail (311) is connected to one end of the fixed operation frame (1) through a slide rail seat.

10. A post-processing detection system for graphene warming ground film according to claim 9, characterized in that: The longitudinal section of the traction clamping board (315) is in a shape of a C; The input ends of the reciprocating electric slide rail (302), the alignment electric push rods (303), the winding and unwinding motor (305), the flattening electric push rods (307), the traction electric slide rail (311), the traction electric push rods (312), and the traction motor (314) are all electrically connected to the output end of an external controller.

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