Water washing detection equipment based on low stretch yarn antistatic polyester fabric

Abstract

The invention discloses washing detection equipment based on a low stretch yarn antistatic polyester fabric, and relates to the technical field of fabric washing detection, the washing detection equipment comprises a main body shell, Faraday cups and a sealing cover, the Faraday cups are symmetrically embedded in the main body shell, the sealing cover is rotatably connected to the tops of the Faraday cups, and the washing detection equipment further comprises a first assembly; the first assembly comprises a side plate, a guide groove, a direction adjusting part and a roller; through the design of a guide groove in the first assembly, the detection efficiency can be remarkably improved, only one piece of sample fabric can be operated each time in a traditional detection mode, and through the design of the guide groove in the first assembly, the electrostatic friction action can be carried out on two pieces of sample fabric at the same time; by means of the improvement, the sample handling capacity of single-time detection is doubled, more fabric detection can be completed within the same time, time consumed by large-scale detection tasks is greatly shortened, the requirements of enterprises for efficient and batch detection are effectively met, and the detection work efficiency is remarkably improved.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of fabric washing detection, in particular to a washing detection equipment based on low-elasticity-silk antistatic polyester fabric. BACKGROUND

[0002] In the textile industry, low-elasticity-silk antistatic polyester fabric is widely used in the fields sensitive to static electricity such as electronics, medical treatment and aerospace due to its soft hand feeling, good elasticity and antistatic performance. In order to ensure the performance stability of the fabric in actual use, the detection of indexes such as the antistatic performance retention rate after washing, the fiber elasticity recovery rate, the color fastness and the surface morphology change is crucial, and the antistatic performance detection is the core link of quality control.

[0003] At present, the detection of the antistatic performance of the fabric after washing in the industry generally adopts a manual operation process: the sample is fixed on a rubbing device through an insulating rod, another insulating rod is used to rub the sample with appropriate uniform pressure (usually once per second, a total of 5 times), and then the rubbed sample is quickly introduced into a Faraday cylinder to obtain the charge value through a charge reading device. However, the above-mentioned traditional manual operation method has obvious defects, which seriously restricts the accuracy and efficiency of the detection result.

[0004] Firstly, the uncertainty of manual operation leads to the lack of consistency of the detection result. When different detection personnel operate, the pressure applied to the insulating rod is difficult to be constant, and the rubbing speed is also prone to deviation, so that the friction force on the fabric is uneven, the surface charge is affected, and the real antistatic performance of the fabric cannot be accurately reflected.

[0005] Secondly, it is difficult for manual operation to ensure that the rubbing rod always rubs the sample in an ideal line-surface contact mode, and the rolling or angle deviation phenomenon frequently occurs, which causes the uneven distribution of the surface charge of the fabric and further increases the detection error. In addition, the time from stopping rubbing to putting the sample into the Faraday cylinder is difficult to accurately control, and the surface charge of the fabric quickly decays with time, so that the measured charge value is significantly smaller if the time delay is too long, which seriously affects the accuracy of the antistatic performance evaluation.

[0006] In addition, manual operation has high labor intensity and low efficiency, repeated detection work is easy to make personnel tired, increases the operation failure rate, and is difficult to meet the large-scale and batch detection demand, which is contrary to the high-efficiency and accurate quality control goal of the modern textile industry.

[0007] In the prior art, there is still a technical blank for the automatic equipment for detecting the antistatic performance of low-elasticity-silk antistatic polyester fabric after washing, and it is urgent to develop a special equipment which can overcome the disadvantages of manual operation, realize accurate control of pressure and speed, stable rubbing mode, accurate operation time and efficient batch detection, so as to improve the detection efficiency and result reliability and promote the development of the quality detection technology of the textile industry.

[0008] Therefore, the application provides a washing detection equipment based on low-elasticity anti-static polyester fabric to solve the above problems. SUMMARY

[0009] Therefore, the application provides a washing detection equipment based on low-elasticity anti-static polyester fabric to solve the above problems.

[0010] To achieve the above purpose, the application provides the following technical scheme: a washing detection equipment based on low-elasticity anti-static polyester fabric, comprising: a main body shell, a Faraday cylinder, and a cover, the Faraday cylinder is symmetrically embedded in the main body shell, the cover is rotationally connected to the top of the Faraday cylinder, and further comprising: a first assembly.

[0011] The first assembly comprises a side plate, a guide groove, an azimuth adjusting piece, and a roller;

[0012] The guide groove is provided through the side plate;

[0013] The roller is rotationally connected to the azimuth adjusting piece;

[0014] As a preferred, the first assembly further comprises a transverse rail fixedly connected to the side plate, the transverse rail is slidingly connected with a support shell, the support shell is rotationally connected with a drive wheel column inside, and the drive wheel column is attached to the upper surface of the transverse rail;

[0015] The support shell is fixedly connected with a connecting plate, the connecting plate is attached with an adapter outside, and the azimuth adjusting piece and the adapter are fixedly connected through a bolt penetrating the connecting plate, which is used to assist the azimuth adjusting piece and the adapter to rotate as a whole;

[0016] The adapter is fixedly connected with an insulating rod.

[0017] As a preferred, the second assembly;

[0018] The second assembly comprises an auxiliary cavity provided in the Faraday cylinder, a screw rod is rotationally connected in the auxiliary cavity, and the screw rod is fixedly connected with the cover;

[0019] The auxiliary cavity is rotationally connected with a tooth groove rotating wheel through an auxiliary sheet, the tooth groove rotating wheel is fixedly connected with a Hall switch, and the auxiliary cavity is fixedly connected with a magnet disc group;

[0020] The inner wall of the cover is fixedly connected with a fixing frame, the fixing frame is fixedly connected with an adjusting disc through a motor, and the adjusting disc is provided with an inner recess;

[0021] The inner recess is fixedly connected with a blocking rod, and the fixing frame is slidingly connected with a passive piece through a guide column.

[0022] As preferred, it further comprises a third component;

[0023] The third component comprises a connecting rod fixedly connected to the passive element, and a triangular block A fixedly connected to the outer end of the connecting rod;

[0024] The vertical rod is inserted through the cover, and a clamping strip is fixedly connected to the upper end of the vertical rod, and a triangular block B is fixedly connected to the lower end of the vertical rod;

[0025] An auxiliary column cavity is sleeved at the bottom of the vertical rod, a spring is fixedly connected to the upper surface of the auxiliary column cavity, and the upper end of the spring is fixedly connected to the bottom surface of the cover.

[0026] As preferred, the guide groove is V-shaped in the middle and linear at both ends.

[0027] As preferred, four magnets are arranged on the magnet disc group.

[0028] Compared with the prior art, the present application provides a washing detection equipment based on low-elasticity-silk anti-static polyester fabric, which has the following advantages:

[0029] 1、The design of the guide groove in the first component can bring the following benefits:

[0030] Significantly improve the detection efficiency: the traditional detection method can only operate one sample fabric at a time, while the present equipment can simultaneously carry out static friction action on two sample fabrics through the design of the guide groove in the first component; the above improvement doubles the sample processing capacity of single detection, and more fabric detection can be completed in the same time, greatly shortening the time consumption of large-scale detection tasks, effectively meeting the needs of efficient and batch detection of enterprises, and significantly improving the detection efficiency;

[0031] Greatly improve the detection accuracy: the guide groove can ensure the straightness of the movement of the insulating rod, effectively avoiding the problems of skewing, rolling or angle deviation during friction; at the same time, the design realizes the synchronous operation of two groups of friction actions, which can obtain two groups of detection data under the same external environmental factors such as temperature, humidity, air pressure, etc., compared with the traditional manual single detection of a sample, this way reduces the interference of environmental variables on the detection results, through the mutual comparison and supplement of the two groups of data, effectively reduces the accidental error, makes the final detection data more accurately reflect the real anti-static performance of the fabric, and provides more reliable basis for quality evaluation;

[0032] Reduce labor cost and operation difficulty: manual operation is not only low in efficiency, but also prone to cause the increase of failure rate due to personnel fatigue. The automatic double sample detection mode of the design reduces the repeatability and complexity of manual operation, reduces the labor intensity of the operating personnel, thereby reducing the dependence on the number and skills of manual labor, reducing the labor cost of enterprises, at the same time, the stable equipment operation mode avoids the fluctuation of detection results caused by the difference of operation methods of different operating personnel, makes the detection process more standardized and standardized.

[0033] 2, The present application has the following advantages by designing the guide groove as a non-flat shape with a V-shaped middle part and straight ends:

[0034] Significantly prolong the service life of the insulating rod: in the traditional linear reciprocating friction, the insulating rod always rubs with the sample fabric with the same contact surface, and this part is prone to surface roughness and material loss due to continuous wear, which shortens the service life of the insulating rod; the non-flat structure of the guide groove with a V-shaped middle part and straight ends at both ends in the design enables the insulating rod to automatically switch the contact surface when rubbing the two groups of sample fabrics, avoiding local over-wear, effectively dispersing the wear pressure, greatly prolonging the service life of the insulating rod, and reducing the cost of consumables and downtime caused by frequent replacement of the insulating rod;

[0035] Improve the stability of the detection results: as the single contact surface of the insulating rod wears out, the surface roughness and shape will change, resulting in uneven pressure and friction force applied to the fabric during the rubbing process, which in turn affects the generation of surface charge of the fabric, causing fluctuations in the detection results; by switching the contact surface, the design can ensure that the insulating rod always contacts the fabric with a relatively flat and stable surface, ensuring that the intensity and method of rubbing remain consistent each time, effectively avoiding detection errors caused by wear of the insulating rod, further improving the stability and reliability of the detection data;

[0036] Enhance the applicability and flexibility of the equipment: different batches and types of low-elasticity silk anti-static polyester fabrics may differ in material properties, thickness, etc., and their requirements for rubbing conditions are also different. The design of non-linear reciprocating movement and switchable contact surface enables the insulating rod to adapt to the detection needs of different fabrics to a certain extent, optimizes the rubbing effect by adjusting the movement path and contact method, improves the applicability of the equipment to diversified fabric detection, expands the application scenarios of the equipment, and provides strong support for enterprises to cope with complex detection tasks.

[0037] 3, The present application has the following advantages by adding a barrier rod in the second component:

[0038] Significantly improve the convenience and efficiency of sample installation: In traditional technology, the sample fabric is directly fixed on the cover in a parallel state, and the operation space is limited, especially for large size or hard texture low elastic filament antistatic polyester fabric, the installation process is complicated and prone to operation errors; the design can be installed in the inclined state of the cover through the blocking rod, so that the control state of the adjusting disc to the clamping strip is increased, at this time the fabric naturally droops under the action of gravity, the operator can lay and align the fabric more easily, greatly reducing the installation time, improving the preparation efficiency before detection, and meeting the rapid sample replacement demand of batch detection;

[0039] Guarantee the flatness and flatness of sample fixation: installing the sample in the inclined state of the cover and the non-clamping state of the clamping strip, the fabric can naturally stretch without external force, and then the fixing operation is performed, which can effectively avoid problems such as fabric wrinkles and curling; the flatly fixed fabric can ensure that the friction force uniformly acts on the fabric surface in the subsequent static friction detection, avoid abnormal charge distribution caused by uneven local stress, thereby improving the accuracy and reliability of the detection result, and more truly reflecting the antistatic performance of the fabric;

[0040] Reduce detection errors and data fluctuations: uneven samples will cause unstable charge generation during friction detection, affecting the consistency of detection data. The blocking rod design ensures the flatness of the fabric installation, so that the friction conditions remain highly consistent during each detection, reducing detection errors caused by differences in sample fixation state. Stable sample fixation effect can also reduce data fluctuations, improve the repeatability of detection results, provide more reliable basis for fabric quality evaluation, and reduce repeated detection costs caused by data deviation;

[0041] Optimize operation process and equipment stability: The multi-stage control mode of "fixing-unfixing-fixing-unfixing-fixing" makes the sample installation and fixation process more controllable; the operator can check and adjust the fabric state step by step to avoid reoperation due to one-time fixation failure; at the same time, the above accurate control logic also reduces the risk of misoperation of mechanical components, reduces the wear of components such as clamping strips, improves the overall operation stability of the equipment, prolongs the service life of the equipment, and reduces maintenance costs.

[0042] 4、The second assembly and the third assembly can form a fixed and transferred integrated mechanism, which can bring the following benefits in terms of efficiency, space utilization and operation convenience:

[0043] Improve detection efficiency and timeliness, and shorten process time through synchronous operation: by integrating the functions of fixing and unfixing and transferring, manual unfixing of the sample and then transferring the sample fabric to the Faraday cylinder are not required, which greatly compresses the time cost of single detection, especially suitable for batch detection scenarios;

[0044] Avoiding charge decay error: the manual transfer in the prior art has time delay, which causes sample fabric charge decay to affect data accuracy; the design significantly shortens the interval from the end of friction to charge detection through automatic synchronous operation, ensures that the measured charge value is closer to the real state, and improves the reliability of antistatic performance evaluation;

[0045] Optimizing space utilization and operation fluency: traditional manual operation needs multiple steps to be completed in different stations, such as separate friction device and sealing cover, while the fixed transfer integrated mechanism integrates functions through mechanical linkage, reduces equipment floor area, and makes the detection process more compact;

[0046] Enhancing detection consistency and data reliability: synchronous mechanical operation of fixed release and transfer ensures that the transfer path, speed and time of each detection are highly consistent, avoids the randomness and transfer time difference caused by manual operation, makes the multiple detection data have stronger comparability, ensures that the fabric maintains the original state after friction before charge detection, and further improves the data accuracy. BRIEF DESCRIPTION OF DRAWINGS

[0047] Figure 1 It is a perspective view of the main structure of the present application;

[0048] Figure 2 It is a top view of the main structure of the present application;

[0049] Figure 3 It is a working state diagram of the first component in the present application;

[0050] Figure 4 It is a switching state diagram of the first component in the present application;

[0051] Figure 5 It is a side view of the main structure of the present application;

[0052] Figure 6 It is a structure diagram related to the Faraday cylinder, sealing cover and second component in the present application;

[0053] Figure 7 It is a structure diagram related to the Faraday cylinder, sealing cover and second component in the present application; Figure 6

[0054] Figure 8 It is a structure diagram related to the Faraday cylinder, sealing cover and second component in the present application; Figure 6

[0055] Figure 9 It is a structure diagram related to the Faraday cylinder, sealing cover and second component in the present application;

[0056] Figure 10 It is a structure diagram related to the Faraday cylinder, sealing cover and second component in the present application;

[0057] Figure 11 ​​A state diagram when the sample fabric is installed or transferred in the present application.

[0058] In the drawings:

[0059] 1, main body shell; 2, Faraday cylinder; 3, cover;

[0060] 4, first assembly; 401, side plate; 402, guide groove; 403, transverse rail; 404, support shell; 405, drive wheel column; 406, connecting plate; 407, orientation adjusting piece; 408, adapter; 409, roller; 410, insulating rod;

[0061] 5, second assembly; 501, auxiliary cavity; 502, screw; 503, tooth groove rotating wheel; 504, Hall switch; 505, magnet disc group; 506, fixing frame; 507, adjusting disc; 508, concave notch; 509, barrier rod; 510, passive piece;

[0062] 6, third assembly; 601, connecting rod; 602, triangular block A; 603, clamping strip; 604, vertical rod; 605, triangular block B; 606, spring; 607, auxiliary column cavity. DETAILED DESCRIPTION

[0063] The technical solutions in the embodiments of the present application will be described clearly and completely below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0064] The present application will be further described in detail below according to the drawings and embodiments.

[0065] EMBODIMENT

[0066] Please refer to Figures 1 to 5 shown:

[0067] To solve the problems mentioned in the technical solutions, the embodiments of the present application provide a kind of based on low elastic filament antistatic polyester fabric washing detection equipment, including: main body shell 1, Faraday cylinder 2, cover 3, Faraday cylinder 2 is symmetrically embedded in main body shell 1, cover 3 is rotatably connected to the top of Faraday cylinder 2, still include: first assembly 4;

[0068] First assembly 4 is used to carry out stable line surface friction treatment to sample fabric;First assembly 4 includes side plate 401, guide groove 402, orientation adjusting piece 407 and roller 409;

[0069] The guide groove 402 is formed through the side plate 401; the roller 409 is rotatably connected to the azimuth adjusting member 407; the first assembly 4 further comprises a transverse rail 403 fixedly connected to the side plate 401, a support shell 404 slidably connected to the transverse rail 403, a driving wheel column 405 rotatably connected to the support shell 404, the driving wheel column 405 being in abutment with the upper surface of the transverse rail 403; the support shell 404 is fixedly connected with a connecting plate 406, the connecting plate 406 is in abutment with an adapter 408, and the azimuth adjusting member 407 is fixedly connected with the adapter 408 through a bolt penetrating through the connecting plate 406, the bolt being used to assist the azimuth adjusting member 407 and the adapter 408 to rotate as a whole, and the adapter 408 is fixedly connected with an insulating rod 410.

[0070] Wherein:

[0071] The Faraday cylinder 2 works based on electrostatic induction and charge conservation law. When the charged particles enter the collector of the Faraday cylinder 2, they will interact with the collector material and be prevented, and the collected charges form a current, pass through a low inductance small resistance to generate a signal voltage proportional to the current, and the signal is recorded by an oscilloscope or the like, so that the strength of the measured electron beam or the charge amount of the charged particles can be calculated.

[0072] The guide groove 402 is formed in a shape that the middle part is V-shaped and the two ends are linear.

[0073] The contact surface between the transverse rail 403 and the driving wheel column 405 is relatively rough, which can enhance the stability of the driving wheel column 405 in moving the support shell 404.

[0074] The azimuth adjusting member 407 and the adapter 408 can cooperate with the V-shaped groove part of the guide groove 402 to adjust the contact surface between the insulating rod 410 and the sample fabric during movement, so as to avoid the problem of short service life caused by always using the same contact surface when the insulating rod 410 rubs against the two sample fabrics.

[0075] The roller 409 can be connected to a small power generation device, and can be used to collect a certain amount of electricity during rotation.

[0076] In the initial state, the roller 409 is located in the transverse groove of the guide groove 402 and does not enter the V-shaped groove of the guide groove 402.

[0077] Further embodiments: please refer to Figure 1 , Figures 6 to 11 as shown:

[0078] The second assembly 5 is used for adjusting and switching the way of the cover 3 plugging the Faraday cylinder 2; the second assembly 5 comprises an auxiliary cavity 501 formed in the Faraday cylinder 2, the auxiliary cavity 501 is rotationally connected with a screw rod 502, the screw rod 502 is fixedly connected with the cover 3; the auxiliary cavity 501 is rotationally connected with a gear slot rotating wheel 503 through an auxiliary sheet, the gear slot rotating wheel 503 is fixedly connected with a Hall switch 504, the auxiliary cavity 501 is fixedly connected with a magnet disc set 505; the inner wall surface of the cover 3 is fixedly connected with a fixed frame 506, the fixed frame 506 is fixedly connected with an adjusting disc 507 through a motor, the adjusting disc 507 is provided with an inner recess gap 508; the inner recess gap 508 is fixedly connected with a blocking rod 509, the fixed frame 506 is slidingly connected with a passive element 510 through a guide column.

[0079] The third assembly 6 is used for fastening and non-fastening the sample fabric, the third assembly 6 comprises a connecting rod 601 fixedly connected with the passive element 510, the connecting rod 601 is fixedly connected with a triangular block A 602 at the outer end; the cover 3 is inserted with a vertical rod 604, the vertical rod 604 is fixedly connected with a clamping strip 603 at the upper end, the vertical rod 604 is fixedly connected with a triangular block B 605 at the lower end; the vertical rod 604 is sleeved with an auxiliary column cavity 607, the auxiliary column cavity 607 is fixedly connected with a spring 606 at the upper surface, the spring 606 is fixedly connected with the bottom surface of the cover 3 at the upper end.

[0080] Wherein:

[0081] The magnet disc set 505 is provided with four magnets, when each of the magnets coincides with the Hall switch 504, the motor of the adjusting disc 507 is driven to rotate once; when the four magnets all contact with the Hall switch 504, the adjusting disc 507 just rotates a circle.

[0082] The triangular block A 602 and the triangular block B 605 cooperate with each other.

[0083] It should be noted that: the second assembly 5 and the third assembly 6 can constitute a fixed transfer integrated mechanism, which can automatically release the fastening state during the transfer of the sample fabric after the friction is completed, realize the synchronization of the fixed release and the transfer, and is beneficial to the detection work in the transfer time and space.

[0084] The second assembly 5 is additionally provided with a blocking rod 509, which can change the state control of the clamping strip 603 in the third assembly 6 from fixing the sample fabric, releasing the fixing, and re-fixing to fixing the sample fabric, releasing the fixing, fixing the sample fabric, releasing the fixing, and fixing the sample fabric when the adjusting disc 507 is rotated once. The above-mentioned action state change is different from the prior art in which the sample fabric is directly fixed on the cover 3 in the parallel state. Since the above-mentioned design can still exist the fixing action when the cover 3 is in the inclined state, the sample fabric can be installed under the double conditions that the cover 3 is in the inclined state and the clamping strip 603 is in the non-clamping state. The inclined installation mode can guarantee that the sample fabric is installed and fixed flat and wrinkle-free.

[0085] The working principle of all the above-mentioned embodiments is as follows:

[0086] In use, the sample fabric is first fixed and installed on the cover 3, and then the first assembly 4 is started to perform the electrostatic load friction treatment on the sample fabric.

[0087] The working process of the second assembly 5 and the third assembly 6 is as follows:

[0088] In use, the screw rod 502 in the auxiliary cavity 501 is first started. In the rotation of the screw rod 502, the cover 3 can follow the screw rod 502 to change from the horizontal state to the inclined state. Further, in the inclination process of the cover 3, the gear slot rotating wheel 503 engaged with the screw rod 502 also rotates in the rotation of the screw rod 502. At the same time, the gear slot rotating wheel 503 rotates in the rotation of the gear slot rotating wheel 503, and the Hall switch 504 on the gear slot rotating wheel 503 rotates around the axis as the rotation axis. Since it is known that the magnet disc set 505 is provided with four magnets, the motor driving the adjusting disc 507 will rotate once when each magnet coincides with the Hall switch 504. When all the four magnets contact the Hall switch 504, the adjusting disc 507 has just rotated one circle. Therefore, under the rotation of the screw rod 502 with the cover 3 and the unblocking action of the Faraday cylinder 2, the adjusting disc 507 will rotate one circle under the driving of the motor.

[0089] Further, the drawings can be referred to Figure 8 and the drawings can be referred to Figure 10In the rotation of the adjusting disc 507, first, the blocking rod 509 on the adjusting disc 507 will push the passive element 510 in the rotation of the adjusting disc 507, at this time, the passive element 510 will push the triangular block B 605 through the connecting rod 601 with the triangular block A 602, with the pushing of the triangular block A 602 to the triangular block B 605, the triangular block B 605 will move upward through the vertical rod 604 to make the clamping strip 603 away from the upper surface of the cover 3, at this time, the spring 606 which is in the initial state of compression will be compressed again, that is, secondary compression; and at this time, the sample fabric can pass between the clamping strip 603 and the cover 3;

[0090] Further, with the continuous rotation of the adjusting disc 507, the blocking rod 509 on the adjusting disc 507 gradually cannot push the passive element 510, when the blocking rod 509 can no longer push the passive element 510, the spring 606 which is in the initial state of compression will be pushed to the initial state indirectly through the passive element 510 in the reset, at this time, the passive element 510 is located in the inner recess 508 and does not contact the blocking rod 509, the clamping strip 603 fixedly connected with the vertical rod 604 returns to the state of adhering to the surface of the cover 3; the vertical rod 604 is in the first compression state;

[0091] Further, with the continuous rotation of the adjusting disc 507, the passive element 510 will move from the inner recess 508 of the adjusting disc 507 to the outer ring surface of the adjusting disc 507, at this time, the passive element 510 will be pushed again to indirectly promote the clamping strip 603 away from the surface of the cover 3, at this time, the vertical rod 604 returns to the secondary compression state; further, with the continuous rotation of the adjusting disc 507, the passive element 510 will contact the blocking rod 509 under the action of the vertical rod 604; to reciprocate;

[0092] Further, in the above-mentioned state that the screw rod 502 with the cover 3 is in an inclined state, and the clamping strip 603 is in a non-adhering state with the cover 3, the operator can install the sample fabric; after the installation is completed, the cover 3 is adjusted to change back to a parallel state to perform friction treatment;

[0093] It should be noted that when the clamping strip 603 and the cover 3 change from the adhering state to the non-adhering state, in addition to being able to install the sample fabric, the sample fabric can also be transferred in the inclined state of the cover 3 after the first assembly 4 finishes rubbing it;

[0094] The above working process is described in detail in the following Figure 1 、 Figures 6 to 11 .

[0095] The working process of the first assembly 4 is as follows:

[0096] When the sample fabric is installed on the surface of the cover 3, the first assembly 4 starts to work; for details, please refer to the followingFigure 3 To the attached Figure 5 First, the driving column 405 is started to move the support shell 404 on the horizontal rail 403, and in the process of moving the support shell 404 on the horizontal rail 403, the connecting plate 406 on the support shell 404 rubs the sample fabric fixed on the cover 3 through the adapter 408 and the insulating rod 410; at the same time, in the process, the orientation adjusting member 407 fixedly connected with the adapter 408 through the bolt rubs the roller 409 in the guide groove 402;

[0097] Further, with the rubbing of the insulating rod 410 on the sample fabric on the cover 3, the roller 409 on the orientation adjusting member 407 gradually moves from the horizontal groove of the guide groove 402 to the V-shaped groove, at this time, the orientation adjusting member 407 will rotate the insulating rod 410 through the adapter 408 by a certain angle, and after the rotation is completed, with the continuous movement of the support shell 404 on the horizontal rail 403, the insulating rod 410 will contact the other Faraday cylinder 2 arranged on the main shell 1 with a new surface, and rub the sample fabric thereon; that is, in the reciprocating movement of the insulating rod 410, the insulating rod 410 will rub the two groups of sample fabrics;

[0098] The above working process is described with reference to Figures 1 to 5 .

[0099] It should be noted that in this text, relationship terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between the entities or operations. Moreover, the terms "include", "contain" or any other variant thereof are intended to cover non-exclusive inclusion, so that the process, method, article or equipment including a series of elements not only includes those elements, but also includes other elements not explicitly listed or inherent to such process, method, article or equipment. Without more limitations, the element defined by the statement "including a" does not exclude the presence of another identical element in the process, method, article or equipment including the element.

[0100] Although embodiments of the present application have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and alterations can be made thereto without departing from the principles and spirit of the present application, and the scope of the present application is defined by the appended claims and their equivalents.

Claims

1. A washing detection device based on low-stretch antistatic polyester fabric, comprising: A main body shell (1), a Faraday cup (2), and a cover (3), wherein the Faraday cup (2) is symmetrically embedded in the main body shell (1), and the cover (3) is rotatably connected to the top of the Faraday cup (2), and is characterized in that it also includes: a first component (4); The first component (4) includes a side plate (401), a guide groove (402), an orientation adjustment member (407) and a roller (409); The guide groove (402) is formed on the side plate (401); The roller (409) is rotatably connected to the azimuth adjusting member (407); It also includes a transverse rail (403) fixedly connected to the side plate (401), a support shell (404) slidably connected to the transverse rail (403), and a driving wheel column (405) rotatably connected inside the support shell (404); A connecting plate (406) is fixedly connected to the support shell (404), and an adapter (408) is attached to the outer surface of the connecting plate (406). The orientation adjustment member (407) and the adapter (408) are fixedly connected by a bolt that passes through the connecting plate (406). The bolt is used to assist the orientation adjustment member (407) and the adapter (408) in rotating as a whole. An insulating rod (410) is fixedly connected to the adapter (408).

2. The washing detection device based on low-stretch antistatic polyester fabric according to claim 1 is characterized by: Also includes: Second component (5); The second component (5) comprises an auxiliary chamber (501) provided in the Faraday cage (2), a screw (502) being rotatably connected in the auxiliary chamber (501), and the screw (502) being fixedly connected to the cover (3); A toothed wheel (503) is rotatably connected to the auxiliary cavity (501) via an auxiliary plate, a Hall switch (504) is fixedly connected to the toothed wheel (503), and a magnet disk group (505) is fixedly connected to the auxiliary cavity (501); The inner wall surface of the cover (3) is fixedly connected to a fixing frame (506), the fixing frame (506) is fixedly connected to an adjusting disk (507) via a motor, and the adjusting disk (507) is provided with an inward concave notch (508); A blocking rod (509) is fixedly connected in the inner concave notch (508), and a passive component (510) is slidably connected to the fixing frame (506) via a guide column.

3. The washing detection device based on low-stretch antistatic polyester fabric according to claim 2 is characterized by: Also includes: The third component (6); The third component (6) comprises a connecting rod (601) fixedly connected to the passive component (510), and the outer end of the connecting rod (601) is fixedly connected to a triangular block A (602); A vertical rod (604) is inserted through the cover (3), the upper end of the vertical rod (604) is fixedly connected to a clamping strip (603), and the lower end of the vertical rod (604) is fixedly connected to a triangular block B (605); The bottom of the vertical rod (604) is sleeved with an auxiliary column cavity (607), the upper surface of the auxiliary column cavity (607) is fixedly connected with a spring (606), and the upper end of the spring (606) is fixedly connected to the bottom surface of the cover (3).

4. The washing detection device based on low-stretch antistatic polyester fabric according to claim 1 is characterized by: The guide groove (402) is formed in a V-shape in the middle and in a straight line at both ends.

5. The washing detection device based on low-stretch antistatic polyester fabric according to claim 2 is characterized by: Four magnets are arranged on the magnet disk group (505).

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