A tunnel furnace for component detection
By designing a tunnel furnace for component detection, the fabric solution is initially filtered and reacted using filter parts and reaction plates, and screening through permeable films, the problem of inaccurate detection results in the prior art is solved, and the accurate distinction of fabric components is achieved. and detection.
Patent Information
- Application Number
- CN202310761862.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-06-27
- Publication Date
- 2025-01-10
- Estimated Expiration
- 2043-06-27
AI Technical Summary
During the inspection of existing fabric composition, the problem of inaccurate detection results is due to the inaccurate detection of soaking solutions.
A tunnel furnace for component detection is designed, including an input part, a detection part and an output part. A filter part is provided in the input part, and a reaction plate and a permeable film are provided in the detection part. After preliminary filtration and reaction of the reaction plate, the solution is passed through. In the permeable film screening, the output unit is responsible for discharge of the remaining solution to ensure accurate distinction and detection of the solution.
Collecting and testing in a relatively stable space is realized, the detection components are amplified through preliminary filtration and reaction plates, and the components to be detected are screened out through the permeable film to ensure the accuracy of the detection results.
Smart Images
Figure CN118209709B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field related to component detection, in particular to a tunnel furnace for component detection. Background Art
[0002] The tunnel furnace for component testing is a device that can collect the components of various types of fabrics, and conduct a series of processing tests on the collected fabric components to obtain test results to confirm whether the components in the fabric meet the usage standards.
[0003] During the collection process of most existing fabrics, due to the large number of components contained in the fabrics, only the fabric soaking solution at the collection point can be collected uniformly, which will make subsequent testing more difficult. In addition, the collected solution may lead to inaccurate test results due to the low content during the testing process. In order to solve this problem, a device is proposed that can further collect the fabric soaking solution after processing. Summary of the Invention
[0004] The technical problem to be solved by the present invention is: the collection process in the existing fabric composition detection process cannot effectively distinguish the soaking solution, resulting in inaccurate detection results; in order to overcome the above problems, a method is provided, which solves the above problems.
[0005] The present invention solves the technical problem by adopting the following technical solutions:
[0006] A tunnel furnace for component detection, comprising a tunnel furnace body, wherein the tunnel furnace body comprises an input part, a detection part, and an output part, wherein the input part, the detection part, and the output part are detachably connected in sequence;
[0007] The input part includes an infusion tank provided therein, a connection flange for connecting to an external port is provided at the bottom of the infusion tank, and a filter element for preliminarily filtering the solution is provided in the infusion tank;
[0008] The detection portion includes a detection tube section connected to the input portion, a detection chamber is defined within the detection tube section, a first reaction plate, a second reaction plate, and a third reaction plate are sequentially disposed within the detection chamber for reacting with the solution, a plurality of permeable membranes are further disposed within the detection chamber, the permeable gaps between the plurality of permeable membranes being of different sizes, and a liquid outlet for discharging the solution is disposed below the plurality of permeable membranes within the detection chamber;
[0009] The output portion includes an output tube segment connected to the detection tube segment for transporting the solution to the outside.
[0010] The plurality of permeable membranes are spaced apart and distributed in the detection chamber, and the peripheral sides of the plurality of permeable membranes are fitted to the side walls of the detection chamber.
[0011] The first reaction plate, the second reaction plate and the third reaction plate are all detachably connected and arranged in the detection tube section, and the first reaction plate, the second reaction plate and the third reaction plate are all distributed with infusion holes.
[0012] The filter element includes a filter plate arranged in the infusion tank. A slot base is provided on both sides of the infusion tank. A limiting groove for the filter plate sleeve is provided in the slot base.
[0013] The liquid outlet member includes a plurality of transfer pipe sections arranged at the bottom of the detection pipe section and used for discharging solid compounds that cannot pass through the detection chamber.
[0014] An output groove is provided in the output pipe section, and a plurality of output channels connected to the external recovery pipe section are connected at the bottom of the output groove.
[0015] The membrane gaps of the plurality of permeable membranes gradually decrease along the solution transport direction.
[0016] Preferably, a first fixing flange is provided on one side of the infusion tank close to the detection tube section, and second fixing flanges are provided at both ends of the detection tube section respectively, and the second fixing flange close to the first fixing flange is connected to the first fixing flange by bolts.
[0017] Preferably, the second fixing flange close to the output pipe section is connected to the output pipe section, and a third fixing flange connected to the second fixing flange is provided on a side of the output pipe section close to the detection pipe section.
[0018] The advantages and positive effects of the present invention are: the overall arrangement of the tunnel furnace body can enable the entire collection and detection process to be carried out in a relatively stable space; the arrangement of the input part and the filter element in the input part can achieve the purpose of inputting the cloth mixed solution and undergoing preliminary filtration; the detection components in the mixed solution can be further amplified by the multiple reaction plates in the detection part, and the mixed solution can be passed through multiple permeable membranes to achieve the purpose of screening out the component solution to be detected, and then output through the liquid outlet part, thereby achieving the purpose of accurately distinguishing the solution in and out of the cloth. BRIEF DESCRIPTION OF THE DRAWINGS
[0019] The present invention will be further described below with reference to the accompanying drawings and examples.
[0020] Figure 1 It is a structural schematic diagram of the present invention;
[0021] Figure 2 yes Figure 1 Schematic diagram of the structure of AA;
[0022] Figure 3 yes Figure 2 Schematic diagram of the local enlarged structure in;
[0023] The symbols in the accompanying drawings are described as follows:
[0024] 1. Tunnel furnace body; 11. Infusion tank; 12. Connecting flange; 13. Slot base; 131. Limiting groove; 14. First fixing flange;
[0025] 2. Filter element; 21. Filter plate; 211. Filter hole;
[0026] 3. Detection unit; 31. Detection tube section; 311. First reaction plate; 3111. Infusion port; 312. Second reaction plate; 313. Third reaction plate; 32. Second fixing flange; 33. Detection chamber; 34. Permeable membrane; 35. Transfer tube section;
[0027] 4. Output part; 41. Third fixed flange; 42. Output pipe section; 421. Output groove; 422. Output channel. DETAILED DESCRIPTION
[0028] The present invention will now be described in further detail with reference to the accompanying drawings, which are simplified schematic diagrams that illustrate the basic structure of the present invention in a schematic manner.
[0029] The embodiments of the present invention are further described below in conjunction with the accompanying drawings:
[0030] Reference Figure 1 and Figure 2As shown, a tunnel furnace for component detection is a device that can collect components of various types of fabrics, and conduct a series of processing tests on the collected fabric components to obtain test results to confirm whether the components in the fabric meet the use standards. In the process of collecting most existing fabrics, due to the large number of components contained in the fabric, only the fabric soaking solution at the collection site can be collected uniformly, which will increase the difficulty of subsequent testing. In addition, the collected solution may have inaccurate test results due to its low content during the testing process. In order to solve this problem, a device that can further collect the fabric soaking solution after processing is proposed, including a tunnel furnace body 1, the tunnel furnace body 1 includes an input part, a detection part 3 and an output part 4, the input part, the detection part 3 and the output part 4 are detachably connected in sequence; the input part includes an infusion tank 11 opened in the input part, the bottom of the infusion tank 11 is provided with a connecting flange 12 for connecting to an external port, and the infusion tank 11 is provided with a filter 2 for preliminary filtering of the solution; the detection part 3 includes a detection pipe section 31 connected to the input part, the detection part 3 is connected to the detection part 3, and the detection part 4 is connected to the detection part 3. A detection chamber 33 is defined within the detection tube section 31. Within this chamber 33, a first reaction plate 311, a second reaction plate 312, and a third reaction plate 313 are sequentially arranged for reacting with the solution. Several permeable membranes 34 are also located within the detection chamber 33, with interpenetration gaps of varying sizes between the membranes 34. A liquid outlet is located beneath the membranes 34 within the detection chamber 33 for discharging the solution. The outlet section 4 includes an outlet pipe section 42 connected to the detection tube section 31 for discharging the solution externally. The integrated arrangement of the tunnel furnace body 1 allows the entire collection and testing process to be conducted within a relatively stable space. The input section and the filter element 2 within the input section allow the fabric mixed solution to be input and initially filtered. The reaction plates within the detection section 3 further amplify the components to be detected in the mixed solution. The mixed solution then passes through the permeable membranes 34, filtering out the components to be detected. This is then discharged through the liquid outlet, accurately distinguishing the solution entering and exiting the fabric. The outlet pipe section 42 within the outlet section 4 ensures that any remaining solution is discharged.
[0031] It should be noted that during the above-mentioned screening process for the components of the fabric mixed solution, the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 are three reaction plates with different components. When the fabric mixed solution passes through the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313, the component molecules to be detected in the fabric react with the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 in sequence. The component to be detected reacts with the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 to produce a solid compound. Moreover, since the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 have different components, they can monitor different components.
[0032] Furthermore, the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 can all be detachably connected and arranged in the detection tube section 31, and the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313 are all distributed with infusion holes 3111; the above-mentioned fabric mixed solution flows sequentially through the infusion holes 3111 and can fully react with the first reaction plate 311, the second reaction plate 312, and the third reaction plate 313.
[0033] The above-mentioned detachable connection can be specifically a snap connection. The first reaction plate 311, the second reaction plate 312 and the third reaction plate 313 are all inserted into the detection tube section 31, which can achieve the purpose of faster replacement and removal of the first reaction plate 311, the second reaction plate 312 and the third reaction plate 313.
[0034] It should also be noted that when the above-mentioned mixed solution reacts with the first reaction plate 311, the second reaction plate 312 and the third reaction plate 313, solid compounds will be generated. In this embodiment, several permeable membranes 34 with different gap sizes are provided, and the solid compounds cannot effectively pass through the permeable membranes 34. It is only necessary to check whether solid compounds are generated after the reaction to determine whether the fabric contains some material components that do not meet the specifications.
[0035] It is worth mentioning that the membrane gaps of the above-mentioned plurality of permeable membranes 34 along the solution transport direction are gradually reduced. The purpose of such arrangement is to ensure that the detection results are more accurate.
[0036] Reference Figure 1 and Figure 3 As shown, in order to ensure that the permeable membrane 34 fully filters the mixed solution and blocks the solid chemicals that may be generated, several of the permeable membranes 34 are spaced apart in the detection chamber 33, and the peripheral sides of several of the permeable membranes 34 are fitted to the side walls of the detection chamber 33; a more effective purpose can be achieved through the above-mentioned fitting arrangement.
[0037] It should be noted that the specific structure of the filter element 2 in the above-mentioned input part is as follows: the filter element 2 includes a filter plate 21 arranged in the infusion tank 11, and a slot base 13 is provided on both sides of the infusion tank 11. The slot base 13 is provided with a limiting groove 131 for inserting the filter plate 21; by inserting the filter plate 21 into the slot base 13, the cloth mixed solution can be initially filtered as soon as it enters the input part, and any solid particles that may remain in the solution can be filtered, thereby achieving the purpose of making subsequent detection results more accurate.
[0038] Furthermore, a plurality of filter holes 211 are provided in the filter plate 21 for filtering solid particles.
[0039] It should also be noted that in order to make the working processes between the input part, the detection part 3 and the output part 4 independent and not interfere with each other, in this embodiment, the infusion tank 11 is provided with a first fixed flange 14 on the side close to the detection pipe section 31, and the two ends of the detection pipe section 31 are respectively provided with a second fixed flange 32, and the second fixed flange 32 close to the first fixed flange 14 is connected to the first fixed flange 14 by bolts; the arrangement of the above-mentioned first fixed flange 14 and the second fixed flange 32 can achieve the purpose of effective connection between the detection pipe section 31 and the input part.
[0040] Furthermore, the second fixed flange 32 close to the output pipe section 42 is connected to the output pipe section 42, and the side of the output pipe section 42 close to the detection pipe section 31 is provided with a third fixed flange 41 connected to the second fixed flange 32; the purpose of connecting the output pipe section 42 and the detection pipe section 31 can be achieved through the connection of the second fixed flange 32 and the third fixed flange 41.
[0041] It is worth mentioning that the specific structure of the liquid outlet part in the above-mentioned detection tube segment 31 is as follows: the liquid outlet part includes several transfer tube segments 35 provided at the bottom of the detection tube segment 31 for discharging solid compounds that cannot pass through the detection chamber 33; when solid compounds appear in the detection tube segment 31, the solid compounds cannot pass through the permeable membrane 34 at this time, and will remain in the detection tube segment 31. When the solution in the detection tube segment 31 is completely discharged, the solid compounds can be transferred out through the transfer tube segment 35. When solid compounds appear in the transfer tube segment 35, it proves that the fabric composition contains some components that do not meet the standards, thereby obtaining accurate detection results.
[0042] In addition, the above-mentioned fabric solution is output through an output trough 421 arranged in the output pipe section 42. The bottom of the output trough 421 is connected to a plurality of output channels 422 connected to the external recovery pipe section. The output pipeline can ensure that the fabric mixed solution flows out in an orderly manner.
[0043] It should be emphasized that the embodiments described in the present invention are illustrative rather than restrictive. Therefore, the present invention is not limited to the embodiments described in the specific implementation methods. Any other implementation methods derived by those skilled in the art based on the technical solutions of the present invention also fall within the scope of protection of the present invention.
Claims
1. A tunnel furnace for component detection, comprising a tunnel furnace body (1), characterized in that: The tunnel furnace body (1) comprises an input part, a detection part (3) and an output part (4), wherein the input part, the detection part (3) and the output part (4) are detachably connected in sequence; The input part comprises an infusion tank (11) provided in the input part, a connection flange (12) for connecting to an external port is provided at the bottom of the infusion tank (11), and a filter element (2) for preliminary filtering of the solution is provided in the infusion tank (11); The detection part (3) comprises a detection tube section (31) connected to the input part, a detection chamber (33) is provided in the detection tube section (31), a first reaction plate (311), a second reaction plate (312) and a third reaction plate (313) are provided in sequence in the detection chamber (33) for reacting with the solution, a plurality of permeable films (34) are also provided in the detection chamber (33), the permeable gaps between the plurality of permeable films (34) are of different sizes, and a liquid outlet for outputting the solution is provided in the detection chamber (33) at the lower side of the plurality of permeable films (34); The output portion (4) comprises an output pipe section (42) connected to the detection pipe section (31) for transporting the solution to the outside; A plurality of the permeable films (34) are arranged in a distributed manner in the detection chamber (33), and the peripheral sides of the plurality of the permeable films (34) are arranged in close contact with the side walls of the detection chamber (33); the first reaction plate (311), the second reaction plate (312) and the third reaction plate (313) are all detachably connected and arranged in the detection tube section (31), and the first reaction plate (311), the second reaction plate (312) and the third reaction plate (313) are all provided with infusion holes (3111); The filter element (2) comprises a filter plate (21) arranged in the infusion tank (11), and a slot base (13) is further arranged on both sides of the infusion tank (11), and a limiting groove (131) for inserting and setting the filter plate (21) is opened in the slot base (13); The liquid outlet comprises a plurality of transfer pipe sections (35) arranged at the bottom of the detection pipe section (31) and used to discharge solid compounds that cannot pass through the detection chamber (33); An output groove (421) is provided in the output pipe section (42), and a plurality of output channels (422) connected to an external recovery pipe section are provided at the bottom of the output groove (421); The membrane gaps of the plurality of permeable membranes (34) gradually decrease along the solution transport direction.
2. A tunnel furnace for component detection according to claim 1, characterized in that: A first fixing flange (14) is provided on one side of the infusion tank (11) close to the detection pipe section (31), and second fixing flanges (32) are provided at both ends of the detection pipe section (31), and the second fixing flange (32) close to the first fixing flange (14) is connected to the first fixing flange (14) by bolts.
3. A tunnel furnace for component detection according to claim 2, characterized in that: The second fixed flange (32) close to the output pipe section (42) is connected to the output pipe section (42), and a third fixed flange (41) connected to the second fixed flange (32) is provided on one side of the output pipe section (42) close to the detection pipe section (31).
Citation Information
Patent Citations
E-commerce ready-made garment detecting and conveying system
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