Component analysis equipment for novel electromagnetic shielding material

Abstract

The invention discloses an electromagnetic shielding new material component analysis device, and relates to the technical field of material analysis, a cover plate is opened, a worker places a material on a laser lens, the material is fixed through a positioning assembly to achieve a positioning effect, a handle is pulled to drive the cover plate to flip, the cover plate is supported through a hydraulic rod, and the material is placed on the laser lens. The surface of the working platform is rubbed through the wiping assembly, so that impurities on the surface of the part are cleaned, the impurities are prevented from covering the laser lens, the influence on the subsequent operation efficiency is avoided, heat or gas is prevented from being easily accumulated in the spectrometer shell, and the impurities in the spectrometer shell are absorbed and cleaned through the processing part; the accuracy and reliability of detection data are guaranteed, the gas in the spectrograph shell is absorbed and cleaned through the processing part, so that the interference of the gas on a detection signal is eliminated, the data accuracy is guaranteed, the core part of equipment is protected, and the service life is prolonged.

Description

Technical Field

[0001] This invention relates to the field of materials analysis technology, specifically to a device for analyzing the composition of a new electromagnetic shielding material. Background Technology

[0002] New materials refer to newly developed or under-research materials with superior performance compared to traditional materials. New materials technology, on the other hand, is the technology that creates new materials that can meet various needs through a series of research processes, including physical research, material design, material processing, and experimental evaluation, in accordance with human will. Nowadays, when researchers analyze the composition of new materials, new material composition analysis equipment is indispensable. With the development of science and technology, different types of new material composition analysis equipment have appeared on the market.

[0003] Chinese patent CN108036980A discloses a new material composition analysis device that can achieve the effect of larger material particles, but cannot achieve the effects of material positioning and internal cleaning of the device. Summary of the Invention

[0004] To address the aforementioned problems, this invention provides the following technical solution: A novel electromagnetic shielding material composition analysis device, comprising a spectrometer housing with a cover hinged to its top. Upon opening the cover, the operator places the material onto the laser lens. A handle is fixedly connected to the top of the cover; pulling the handle flips the cover open, supported by a hydraulic rod. A processing component is fixedly connected to the upper exterior of the spectrometer housing. Since heat or gas can easily accumulate inside the spectrometer housing, the processing component absorbs and cleans impurities within the housing, ensuring the accuracy and reliability of the detection data, eliminating interference with the detection signal, preventing cross-contamination, reducing safety risks during equipment operation, protecting precision optical and electrical components, and reducing equipment maintenance costs and downtime. The processing component also absorbs and cleans gases inside the spectrometer housing, thereby eliminating gas interference with the detection signal, ensuring data accuracy, protecting core components, and extending the equipment's lifespan. To prevent damage to precision components from gas condensation, improve equipment system operating efficiency, ensure smooth testing processes, reduce safety and environmental risks, and comply with operating procedures, a hydraulic rod is fixedly connected to one side of the inner wall of the spectrometer housing. The outer side of the hydraulic rod is fixedly connected to the top of the inner wall of the cover plate. A working platform is fixedly connected inside the spectrometer housing. A laser lens is fixedly connected to the middle of the top of the working platform. Square grooves are formed on both sides of the top of the working platform. A positioning component is hinged to the inner side of the square groove. The positioning component fixes the material to achieve positioning, preventing displacement during the closing of the cover plate or during testing, avoiding affecting the material composition analysis, and maintaining normal equipment operation. A wiping component is fixedly connected to the outer side of the working platform. The wiping component rubs the surface of the working platform to clean impurities on the component surface, avoiding affecting equipment operation, preventing impurities from covering the laser lens, and avoiding affecting the efficiency of subsequent operations. The positioning component includes a hinge block, to which a positioning frame is fixedly connected. The positioning frame engages with a square block on one side to fix the material on both sides, thus providing a certain positioning function, ensuring the accuracy of the detection position, avoiding data deviation, preventing sample displacement, ensuring the stability of the detection process, protecting the equipment and sample, and reducing safety risks. A square block is inserted and connected to the side of the positioning frame away from the hinge block. The bottom of the square block is fixedly connected to the inner wall of the square groove. A connecting block is fixedly connected to the outside of the positioning frame. Pulling the connecting block causes the positioning frame to rotate around the hinge block as an axis, thus facilitating the placement of the material on the square groove.

[0005] Preferably, the wiping assembly includes a slide rail, and a sliding block is slidably connected to the outer side of the slide rail. The sliding block drives the friction assembly to rub and clean the work platform, causing impurities to fall from the work platform to all sides, making it easier for subsequent processing components to absorb and clean the impurities, thereby keeping the inside of the equipment clean. A receiving frame is fixedly connected to the top of the sliding block, and the friction assembly is inserted into the top of the receiving frame, which facilitates disassembly and installation, prevents severe wear of the components after long-term operation, and avoids affecting the subsequent friction cleaning effect. The friction assembly is inserted into the top of the receiving frame.

[0006] Preferably, the friction assembly includes a friction frame, with a magnetic frame fixedly connected to the side of the friction frame closest to the working platform. A magnetic plate is magnetically connected to the side of the magnetic frame, which is magnetically attached to the magnetic frame for easy disassembly and installation, improving modularity, reducing the difficulty of component replacement, and increasing the operating efficiency of the component. A brush block is fixedly connected to the side of the magnetic plate away from the magnetic frame, which cleans the working platform and laser lens to remove impurities from the component surface, avoid affecting equipment operation, and ensure the accuracy and reliability of the test data.

[0007] Preferably, the processing component includes a first frame, with an outlet housing fixedly connected to the outer side of the first frame. A grid plate is fixedly connected to one side of the inner wall of the outlet housing, which serves to block impurity leakage and prevent it from affecting subsequent cleaning. A first fan is fixedly connected to the inner wall of the outlet housing near the grid plate. The first fan generates airflow, which drives impurities inside the spectrometer housing towards the outlet housing, thereby cleaning and collecting impurities. A filter assembly is fixedly connected to the outer side of the outlet housing near the first fan. The airflow absorbs and cleans the gas inside the housing, allowing the gas to come into contact with the filter assembly and be filtered to prevent direct emission and pollution of the external environment, thus optimizing the working environment.

[0008] Preferably, a collection shell is inserted and connected to the bottom of the air outlet shell. Impurities enter the air outlet shell and are collected by the collection shell, thereby temporarily storing the impurities, facilitating subsequent cleaning, preventing impurities from splashing, and improving cleaning efficiency. An external block is fixedly connected to the bottom of the collection shell. Pulling the external block causes the collection shell to detach from the bottom of the air outlet shell, which facilitates disassembly and installation. A rotating component is fixedly connected to the inner wall of the air outlet shell, and an air supply component is fixedly connected to the outer side of the air outlet shell away from the first fan.

[0009] Preferably, the air supply assembly includes an air supply frame connected to a square column, which is inserted into a connecting housing. This facilitates quick disassembly and installation, enhances the modularity of the components, enables flexible component functions, reduces equipment maintenance difficulty, and improves operational stability. A second fan is fixedly connected to one side of the inner wall of the air supply frame. The second fan generates airflow, which flows from one side of the spectrometer housing to the other, thereby driving impurities into the outlet housing for easy collection, reducing impurity residue, and improving the cleaning effect of impurities inside the equipment. A perforated plate is fixedly connected to the inner wall of the air supply frame away from the second fan. The perforated plate blocks external impurities from entering the equipment with the airflow, preventing them from affecting equipment detection. A square column is fixedly connected to the outer side of the air supply frame near the first fan. A connecting housing is inserted into the outer side of the square column, and an air supply housing is fixedly connected to the outer side of the connecting housing.

[0010] Preferably, the rotating assembly includes a fixed frame, a support shaft is fixedly connected to one side of the fixed frame, a rotating column is rotatably connected to the outside of the support shaft, and annular frames are fixedly connected to both ends of the rotating column. The wind force acts on the paddles, which drive the rotating column to rotate, causing the annular frames to control the scraper to rub and clean the inner wall of the shell. This serves to clean impurities from the inner wall of the shell, preventing excessive accumulation and adhesion of impurities, preventing thick impurities from affecting the airflow effect, keeping the inside of the shell clean, and avoiding affecting the subsequent cleaning effect. The scraper is fixedly connected to the outside of the annular frame, and the paddle is fixedly connected to the middle of the outside of the rotating column.

[0011] Preferably, a rubber block is fixedly connected to the outer side of the scraper away from the annular frame. The rubber block is made of rubber and has a certain degree of wear resistance and cushioning effect, thereby reducing the collision caused by component friction and avoiding affecting the component friction effect. Secondly, it reduces the wear between components, thereby extending the service life of the components and avoiding damage to the inner wall of the housing. An arc-shaped groove is formed on the outer side of the rubber block away from the scraper to enhance the deformation performance of the component, further improve the cushioning effect of the component, and provide a certain degree of protection for the component. In addition, it increases the texture of the component surface and increases the friction force against impurities.

[0012] Preferably, the filter assembly includes a filter housing, with a ring-shaped frame inserted into the outer side of the filter housing. A sliding groove is formed on the inner side of the filter housing, and a first filter frame is inserted into the inner side of the sliding groove. A filter plate is placed on a receiving shaft, and a second filter frame is inserted into the receiving shaft to restrict the movement of the filter plate, preventing excessive shaking and affecting the filtration effect. A receiving shaft is fixedly connected to one side of the first filter frame, and a filter plate is sleeved on the outer side of the receiving shaft. The filter plate filters the gas, thereby eliminating the influence of the gas on the detection signal. To prevent interference from the signal, ensure data accuracy, protect core components of the equipment, extend service life, avoid damage to precision components caused by gas condensation, improve the operating efficiency of the equipment system, ensure smooth testing processes, reduce safety and environmental risks, and comply with operating specifications, a second filter frame is inserted and connected to the side of the receiving shaft away from the first filter frame. The first and second filter frames drive the filter plate to be inserted into the sliding groove, which facilitates the disassembly and installation of components, reduces the difficulty of component replacement, and thus maintains continuous operation of the equipment. A pull block is fixedly connected to the side of the second filter frame away from the receiving shaft.

[0013] This invention provides a novel electromagnetic shielding material composition analysis device. It has the following beneficial effects: I. This electromagnetic shielding material composition analysis equipment features a wiping component design. The top of the frame is connected to a friction component, which facilitates disassembly and installation, prevents severe wear of components after prolonged operation, and avoids affecting the subsequent friction cleaning effect. The sliding block drives the friction component to rub and clean the work platform, causing impurities to fall from the work platform to all sides, making it easier for subsequent processing components to absorb and clean the impurities, thereby keeping the inside of the equipment clean.

[0014] II. This electromagnetic shielding material composition analysis equipment, through its component design, utilizes a first fan to generate airflow. This airflow pulls impurities inside the spectrometer housing towards the outlet housing, thus cleaning and collecting the impurities. The grid plate prevents impurity leakage, avoiding interference with subsequent cleaning. Secondly, the airflow absorbs and cleans the gas inside the housing, bringing the gas into contact with the filter components. The filter components then filter the gas, preventing direct emission and pollution to the external environment, thus optimizing the working environment.

[0015] Third, this electromagnetic shielding material composition analysis equipment features an air supply component design. The air supply frame is connected to square columns, which are inserted into the connecting housing. This facilitates quick disassembly and installation, enhances component modularity, enables flexible component functions, reduces equipment maintenance difficulty, and improves operational stability. The perforated plate acts as a barrier to prevent external impurities from entering the equipment with the airflow, thus preventing them from affecting the equipment's detection. A second fan generates airflow that flows from one side of the spectrometer housing to the other, thereby driving impurities into the outlet housing for easy collection, reducing impurity residue, and improving the cleaning effect of impurities inside the equipment.

[0016] IV. This electromagnetic shielding material composition analysis equipment, through its rotating component design, utilizes wind power to act on paddles, which in turn drive the rotating column to rotate. This causes the ring frame to control the scraper to rub and clean the inner wall of the housing, thereby removing impurities from the inner wall and preventing excessive accumulation of impurities that could affect airflow. This keeps the inside of the housing clean and avoids impacting subsequent cleaning. The rubber blocks, made of rubber, have a certain degree of wear resistance and cushioning effect, thus reducing collisions caused by component friction and preventing damage to the components. Furthermore, it reduces wear between components, extending their service life and preventing damage to the inner wall of the housing. By creating arc-shaped grooves, the deformation performance of the components is enhanced, further improving the cushioning effect and providing a certain degree of protection. Additionally, the texture of the component surface is increased to enhance the friction against impurities.

[0017] V. This electromagnetic shielding material composition analysis equipment, through its filter assembly design, places the filter plate on a receiving shaft, with the second filter frame docking with the receiving shaft. This restricts the movement space of the filter plate, preventing excessive shaking and ensuring optimal filtration. The first and second filter frames drive the filter plate into the sliding groove, facilitating disassembly and installation, reducing component replacement difficulty, and ensuring continuous equipment operation. The filter plate filters the gas, eliminating interference with the detection signal, ensuring data accuracy, protecting core components, extending service life, preventing damage to precision components from gas condensation, improving system efficiency, ensuring smooth testing processes, reducing safety and environmental risks, and complying with operating procedures. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the external structure of the electromagnetic shielding material composition analysis device of the present invention; Figure 2 This is a schematic diagram of the structure of the novel material composition analysis device of the present invention; Figure 3 This is a schematic diagram of the positioning component structure of the present invention; Figure 4 This is a schematic diagram of the wiping component structure of the present invention; Figure 5 This is a schematic cross-sectional view of the processing component of the present invention; Figure 6 This is a schematic diagram of a partial structure of the processing component of the present invention; Figure 7 This is a schematic cross-sectional view of the air supply component of the present invention; Figure 8 This is a schematic diagram of the rotating component structure of the present invention; Figure 9 This is a schematic cross-sectional view of the filter assembly of the present invention.

[0019] In the diagram: 1. Spectrometer housing; 2. Cover plate; 3. Handle; 4. Hydraulic rod; 5. Working platform; 6. Laser lens; 7. Positioning assembly; 8. Wiping assembly; 9. Processing component; 10. Square groove; 71. Hinge block; 72. Positioning frame; 73. Square block; 74. Connecting block; 81. Slide rail; 82. Sliding block; 83. Receiving frame; 84. Friction assembly; 841. Friction frame; 842. Magnetic frame; 843. Magnetic suction plate; 844. Brush block; 91. First frame; 92. Grille plate; 93. Exhaust housing; 94. First fan; 95. Air supply assembly; 96. Collection housing; 97. External block; 98. Rotating assembly; 99. Filter assembly; 951. Air supply housing; 952. Connecting housing; 953. Air supply frame; 954. Square column; 955. Second fan; 956. Mesh plate; 981. Fixing frame; 982. Support shaft; 983. Rotating column; 984. Ring frame; 985. Scraper; 986. Paddle plate; 987. Rubber block; 988. Arc-shaped groove; 991. Filter housing; 992. Ring frame; 993. Sliding groove; 994. First filter frame; 995. Receiving shaft; 996. Filter plate; 997. Second filter frame; 998. Pull block. Detailed Implementation

[0020] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0021] First embodiment, such as Figures 1 to 4As shown, the present invention provides a technical solution: a novel electromagnetic shielding material composition analysis device, comprising a spectrometer housing 1, a cover plate 2 hinged to the top of the spectrometer housing 1, a handle 3 fixedly connected to the top of the cover plate 2, a processing component 9 fixedly connected to the upper side of the outside of the spectrometer housing 1, a hydraulic rod 4 fixedly connected to one side of the inner wall of the spectrometer housing 1, the outer side of the hydraulic rod 4 fixedly connected to the top of the inner wall of the cover plate 2, a working platform 5 fixedly connected inside the spectrometer housing 1, a laser lens 6 fixedly connected to the middle of the top of the working platform 5, square grooves 10 formed on both sides of the top of the working platform 5, a positioning component 7 hinged to the inner side of the square grooves 10, and a wiping component 8 fixedly connected to the outer side of the working platform 5; by opening the cover plate 2, the operator places the material on the laser lens 6, and fixes the material by the positioning component 7, thereby achieving the positioning function, preventing displacement during the closing of the cover plate 2 or during the detection process, avoiding affecting the material composition analysis, and maintaining the normal operation of the equipment; pulling the handle 3 moves the cover plate 2. The cover is flipped up, and the cover plate 2 is supported by the hydraulic rod 4. After the operation, the surface of the working platform 5 is rubbed by the wiping component 8 to clean the impurities on the surface of the components, so as to avoid affecting the operation of the equipment and prevent the impurities from covering the laser lens 6, thus avoiding affecting the efficiency of subsequent operations. At the same time, after laser operation, heat or gas may accumulate inside the spectrometer housing 1. The processing component 9 absorbs and cleans the impurities inside the spectrometer housing 1, ensuring the accuracy and reliability of the detection data, eliminating detection signal interference, avoiding cross-contamination, reducing the safety risks of equipment operation, protecting precision optical and electrical components, reducing equipment maintenance costs and downtime. At the same time, the processing component 9 absorbs and cleans the gas inside the spectrometer housing 1, thereby eliminating gas interference with the detection signal, ensuring data accuracy, protecting the core components of the equipment, extending the service life, avoiding damage to precision components caused by gas condensation, improving the operating efficiency of the equipment system, ensuring a smooth detection process, reducing safety and environmental risks, and complying with operating procedures.

[0022] The positioning component 7 includes a hinge block 71, with a positioning frame 72 fixedly connected to the outer side of the hinge block 71. A square block 73 is inserted and connected to the outer side of the positioning frame 72 away from the hinge block 71. The bottom of the square block 73 is fixedly connected to the inner wall of the square groove 10. A connecting block 74 is fixedly connected to the outer side of the positioning frame 72. By pulling the connecting block 74, the positioning frame 72 rotates around the hinge block 71 as an axis, facilitating the placement of materials on the square groove 10. The positioning frame 72 engages with the square block 73 on one side, thus fixing the materials on both sides and providing a certain positioning function. This ensures the accuracy of the detection position, avoids data deviation, prevents sample displacement, ensures the stability of the detection process, protects the equipment and samples, and reduces safety risks.

[0023] The wiping assembly 8 includes a slide rail 81, a sliding block 82 slidably connected to the outer side of the slide rail 81, a receiving frame 83 fixedly connected to the top of the sliding block 82, and a friction assembly 84 inserted into the top of the receiving frame 83. The friction assembly 84 is inserted into the top of the receiving frame 83 to facilitate disassembly and installation, prevent severe wear of components after prolonged operation, and avoid affecting the subsequent friction cleaning effect. The sliding block 82 drives the friction assembly 84 to rub and clean the work platform 5, causing impurities to fall from the work platform 5 to all sides, facilitating the absorption and cleaning of impurities by the subsequent processing components 9, thereby keeping the inside of the equipment clean.

[0024] The friction assembly 84 includes a friction frame 841. A magnetic frame 842 is fixedly connected to the outer side of the friction frame 841 near the working platform 5. A magnetic suction plate 843 is magnetically connected to the outer side of the magnetic frame 842. A brush block 844 is fixedly connected to the outer side of the magnetic suction plate 843 away from the magnetic frame 842. The magnetic suction plate 843 is magnetically attached to the magnetic frame 842, which facilitates disassembly and installation, improves the modularity of the component, reduces the difficulty of component replacement, and improves the operating efficiency of the component. The brush block 844 cleans the working platform 5 and the laser lens 6, thereby cleaning impurities on the surface of the components, avoiding interference with equipment operation, and ensuring the accuracy and reliability of the test data.

[0025] The second embodiment is based on the first embodiment; please refer to [link / reference]. Figures 5 to 7 As shown, the processing component 9 includes a first frame 91, an outlet housing 93 fixedly connected to the outer side of the first frame 91, a grid plate 92 fixedly connected to one side of the inner wall of the outlet housing 93, a first fan 94 fixedly connected to the side of the inner wall of the outlet housing 93 near the grid plate 92, and a filter assembly 99 fixedly connected to the outer side of the outlet housing 93 near the first fan 94. The first fan 94 generates airflow, which drives impurities inside the spectrometer housing 1 towards the outlet housing 93, thereby cleaning and collecting impurities. The grid plate 92 prevents impurity leakage, avoiding interference with subsequent cleaning. Furthermore, the airflow absorbs and cleans the gas inside the housing, bringing the gas into contact with the filter assembly 99, which filters the gas, preventing direct emission and pollution to the external environment, thus optimizing the working environment.

[0026] A collection housing 96 is inserted into the bottom of the exhaust housing 93. An external block 97 is fixedly connected to the bottom of the collection housing 96. A rotating assembly 98 is fixedly connected to the inner wall of the exhaust housing 93. An air supply assembly 95 is fixedly connected to the outer side of the exhaust housing 93 away from the first blower 94. Impurities enter the exhaust housing 93 and are collected by the collection housing 96, thus temporarily storing the impurities for subsequent cleaning, preventing impurities from splashing, and improving cleaning efficiency. Pulling the external block 97 causes the collection housing 96 to detach from the bottom of the exhaust housing 93, facilitating disassembly and installation.

[0027] The air supply assembly 95 includes an air supply frame 953. A second fan 955 is fixedly connected to one side of the inner wall of the air supply frame 953. A mesh plate 956 is fixedly connected to the side of the inner wall of the air supply frame 953 away from the second fan 955. A square column 954 is fixedly connected to the outer side of the air supply frame 953 near the first fan 94. A connecting housing 952 is inserted into the outer side of the square column 954. An air supply housing 951 is fixedly connected to the outer side of the connecting housing 952. The air supply frame 953 is connected to a square column 954, which is inserted into the connecting housing 952. This facilitates quick disassembly and installation, enhances the modularity of components, realizes the flexibility of component functions, reduces the difficulty of equipment operation and maintenance, and improves operational stability. The mesh plate 956 serves to block external impurities from entering, preventing impurities from entering the equipment with the airflow and preventing them from affecting equipment detection. The second fan 955 generates airflow, which flows from one side to the other inside the spectrometer housing 1. This airflow carries impurities into the air outlet housing 93, facilitating the collection of impurities, reducing impurity residue, and improving the cleaning effect of impurities inside the equipment.

[0028] The third embodiment is based on embodiments one and two; please refer to [link / reference]. Figures 8 to 9 As shown, the rotating assembly 98 includes a fixed frame 981. A support shaft 982 is fixedly connected to one side of the fixed frame 981. A rotating column 983 is rotatably connected to the outside of the support shaft 982. Ring frames 984 are fixedly connected to both ends of the rotating column 983. A scraper 985 is fixedly connected to the outside of the ring frame 984. A paddle 986 is fixedly connected to the middle of the rotating column 983. Wind force acts on the paddle 986, causing the rotating column 983 to rotate. This causes the ring frame 984 to control the scraper 985 to perform friction cleaning on the inner wall of the housing. This friction cleaning removes impurities from the inner wall of the housing, preventing excessive accumulation and adhesion of impurities, preventing thick layers of impurities from affecting airflow, keeping the inside of the housing clean, and avoiding impact on subsequent cleaning results.

[0029] A rubber block 987 is fixedly connected to the side of the scraper 985 away from the annular frame 984. An arc-shaped groove 988 is formed on the side of the rubber block 987 away from the scraper 985. The rubber block 987 is made of rubber, which has a certain degree of wear resistance and cushioning effect, thereby reducing the impact of friction between components and preventing damage to the inner wall of the housing. Furthermore, the arc-shaped groove 988 enhances the deformation performance of the component, further improving its cushioning effect and providing a certain degree of protection. Additionally, it adds texture to the surface of the component, increasing the friction against impurities.

[0030] The filter assembly 99 includes a filter housing 991, a ring-shaped frame 992 inserted into the outer side of the filter housing 991, a sliding groove 993 formed on the inner side of the filter housing 991, a first filter frame 994 inserted into the inner side of the sliding groove 993, a receiving shaft 995 fixedly connected to one side of the outer side of the first filter frame 994, a filter plate 996 sleeved on the outer side of the receiving shaft 995, a second filter frame 997 inserted into the outer side of the receiving shaft 995 away from the first filter frame 994, and a pulling block 998 fixedly connected to the outer side of the second filter frame 997 away from the receiving shaft 995. The filter plate 996 is placed on the receiving shaft 995, and the second filter frame 997 is inserted into the receiving shaft 995 to restrict the movement of the filter plate 996, preventing excessive shaking of the component and affecting the filtration effect. The first filter frame 994 and the second filter frame 997 drive the filter plate 996 to insert into the sliding groove 993, which facilitates the disassembly and installation of the component, reduces the difficulty of component replacement, and maintains continuous operation of the equipment. The filter plate 996 filters the gas, thereby eliminating gas interference with the detection signal, ensuring data accuracy, protecting the core components of the equipment, extending service life, preventing damage to precision components from gas condensation, improving the operating efficiency of the equipment system, ensuring a smooth detection process, reducing safety and environmental risks, and complying with operating procedures.

[0031] During use, open cover 2, and the operator places the material on the laser lens 6. The positioning component 7 secures the material, preventing displacement during the closing of cover 2 or the testing process, thus avoiding interference with material composition analysis and ensuring normal equipment operation. Pull handle 3 to flip cover 2, supported by hydraulic rod 4. After operation, wipe the surface of the work platform 5 with the wiping component 8 to clean impurities from the component surface, preventing interference with equipment operation and preventing impurities from covering the laser lens 6, thus avoiding impact on subsequent operation efficiency. Additionally, after laser operation, heat may accumulate inside the spectrometer housing 1. The gas is absorbed and cleaned by the processing component 9 to remove impurities inside the spectrometer housing 1, ensuring the accuracy and reliability of the detection data, eliminating interference with the detection signal, avoiding cross-contamination, reducing the safety risks of equipment operation, protecting precision optical and electrical components, reducing equipment maintenance costs and downtime. At the same time, the gas absorption and cleaning by the processing component 9 eliminates gas interference with the detection signal, ensures data accuracy, protects the core components of the equipment, extends its service life, avoids damage to precision components caused by gas condensation, improves the operating efficiency of the equipment system, ensures a smooth detection process, reduces safety and environmental risks, and complies with operating procedures.

[0032] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. An electromagnetic shielding new material component analysis device, characterized by, Including the shell of the spectrometer (1), the top of the shell of the spectrometer (1) is hinged with the cover plate (2), the top of the cover plate (2) is fixedly connected with the handle (3), the upper side of the outside of the shell of the spectrometer (1) is fixedly connected with the processing part (9), one side of the inner wall of the shell of the spectrometer (1) is fixedly connected with the hydraulic rod (4), one side of the outside of the hydraulic rod (4) is fixedly connected with the inner wall of the top of the cover plate (2), the inside of the shell of the spectrometer (1) is fixedly connected with the working platform (5), the middle of the top of the working platform (5) is fixedly connected with the laser lens (6), the both sides of the top of the working platform (5) are provided with square grooves (10), the inner side of the square groove (10) is hinged with the positioning assembly (7), the outside of the working platform (5) is fixedly connected with the wiping assembly (8); The positioning assembly (7) includes a hinge block (71), the outside of the hinge block (71) is fixedly connected with a positioning frame body (72), the outside of the positioning frame body (72) is insertedly connected with a square block (73) away from the hinge block (71), the bottom of the square block (73) is fixedly connected with the inner wall of the square groove (10), the outside of the positioning frame body (72) is fixedly connected with a connecting block (74).

2. The electromagnetic shielding new material component analysis device according to claim 1, characterized in that: The wiping assembly (8) includes a sliding rail (81), the outside of the sliding rail (81) is slidingly connected with a sliding block (82), the top of the sliding block (82) is fixedly connected with a receiving frame body (83), the top of the receiving frame body (83) is insertedly connected with a friction assembly (84).

3. The electromagnetic shielding new material composition analysis device according to claim 2, characterized in that: The friction assembly (84) includes a friction frame body (841), the outside of the friction frame body (841) is fixedly connected with a magnetic frame body (842) close to the working platform (5), the outside of the magnetic frame body (842) is magnetically connected with a magnetic plate (843), the outside of the magnetic plate (843) is fixedly connected with a brush block (844) away from the magnetic frame body (842).

4. The electromagnetic shielding new material composition analysis device according to claim 1, characterized in that: The processing part (9) includes a first frame body (91), the outside of the first frame body (91) is fixedly connected with an air outlet shell (93), one side of the inner wall of the air outlet shell (93) is fixedly connected with a grille plate (92), one side of the inner wall of the air outlet shell (93) close to the grille plate (92) is fixedly connected with a first fan (94), the outside of the air outlet shell (93) close to the first fan (94) is fixedly connected with a filtering assembly (99).

5. The electromagnetic shielding new material composition analysis device according to claim 4, characterized in that: The bottom of the air outlet shell (93) is insertedly connected with a collection shell (96), the bottom of the collection shell (96) is fixedly connected with an external block (97), the inner wall of the air outlet shell (93) is fixedly connected with a rotating assembly (98), the outside of the air outlet shell (93) away from the first fan (94) is fixedly connected with a air supply assembly (95).

6. The electromagnetic shielding new material composition analysis device according to claim 5, characterized in that: The air supply assembly (95) includes an air supply frame (953), one side of the inner wall of the air supply frame (953) is fixedly connected with a second fan (955), the side of the inner wall of the air supply frame (953) away from the second fan (955) is fixedly connected with a mesh plate (956), one side of the outer part of the air supply frame (953) close to the first fan (94) is fixedly connected with a square column (954), the outer side of the square column (954) is insertedly connected with a connecting shell (952), and the outer side of the connecting shell (952) is fixedly connected with an air supply shell (951).

7. The electromagnetic shielding new material composition analysis device according to claim 5, characterized in that: The rotating assembly (98) includes a fixing frame (981), one side of the outer part of the fixing frame (981) is fixedly connected with a supporting shaft (982), the outer side of the supporting shaft (982) is rotatably connected with a rotating column (983), both ends of the outer part of the rotating column (983) are fixedly connected with an annular frame (984), the outer side of the annular frame (984) is fixedly connected with a scraper (985), and the middle of the outer part of the rotating column (983) is fixedly connected with a paddle (986).

8. The electromagnetic shielding new material composition analysis device according to claim 7, characterized in that: The outer side of the scraper (985) away from the annular frame (984) is fixedly connected with a rubber block (987), and the outer side of the rubber block (987) away from the scraper (985) is provided with an arc-shaped groove (988).

9. The electromagnetic shielding new material composition analysis device according to claim 4, characterized in that: The filtering assembly (99) includes a filtering shell (991), the outer side of the filtering shell (991) is insertedly connected with a ring-shaped frame (992), the inner side of the filtering shell (991) is provided with a sliding groove (993), the inner side of the sliding groove (993) is insertedly connected with a first filtering frame (994), one side of the outer part of the first filtering frame (994) is fixedly connected with a bearing shaft (995), the outer side of the bearing shaft (995) is sleeved with a filtering plate (996), one side of the outer part of the bearing shaft (995) away from the first filtering frame (994) is insertedly connected with a second filtering frame (997), and one side of the outer part of the second filtering frame (997) away from the bearing shaft (995) is fixedly connected with a pulling block (998).

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