Moisture absorption and heating flannel product detection process and system

Abstract

The invention relates to a moisture-absorbing and heating flannel product detection system which comprises a monitoring station, and the monitoring station comprises a profile frame, a top plate, a supporting plate, a bottom plate, a side plate, a door plate, a system head, a control chamber, a drying chamber and a monitoring chamber. The top plate is fixedly arranged at the top of the profile frame, the bottom plate is fixedly arranged at the bottom of the profile frame, the supporting plate is fixedly arranged between the top plate and the bottom plate on the profile frame, and the two sets of side plates are symmetrically and fixedly arranged on the two sides of the profile frame. The door plate is movably arranged on the profile frame and is in hinged connection with the profile frame; the environment consistency of the detection system can be effectively controlled, particularly, moisture absorption and heating experiments are carried out on dried moisture absorption and heating flannel product sample cloth in the same environment, a standard test environment not affected by the outside world is provided, that is, door opening sampling from the drying chamber to the monitoring chamber is avoided, and the detection efficiency is improved. The influence of an external environment on an experimental result in a manual sampling process is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of detection systems, in particular to a detection process and system for hygroscopic and heat-generating flannel products. Background Art

[0002] Because traditional thermal fabrics have poor moisture absorption and breathability, the sweat and heat generated by consumers when wearing winter clothing are difficult to discharge, which easily leads to a stuffy feeling. By improving the moisture absorption and heat generation functions of underwear and home textiles, the fabric products can be developed from having only a single thermal insulation function to a multifunctional fabric with comprehensive properties of moisture absorption, heat generation, warmth and breathability, effectively improving the wearing performance of the fabric.

[0003] The hygroscopic and heat-generating property of textiles refers to the property that the hydrophilic polar groups on the surface of the hygroscopic and heat-generating material capture water molecules in the environment and combine with them, converting the kinetic energy of the water molecules into thermal energy, thereby increasing the temperature of the sample.

[0004] The heat of vaporization required when liquid water evaporates will lower the body temperature, while when gaseous water is converted into water, it will generate condensation heat and release it to the human body. Using this principle, fabrics processed with hygroscopic and heat-generating finishing agents can capture water molecules with high kinetic energy in the air by adsorbing them, condensing water vapor into water to generate condensation heat, and converting the kinetic energy of water molecules into thermal energy, thereby achieving the effect of heating and regulating the temperature of textile fabrics. They can also absorb sweat and moisture emitted from the body, thereby generating heat and giving people a warm and comfortable feeling.

[0005] The moisture absorption and heat generation performance tester is used to test the moisture absorption and heat generation performance of textiles, and can also perform other temperature inspection tests. The moisture absorption and heat generation performance tester for textiles complies with the standards: GB / T 29866-2013, FZ / T 73036-2010, FZ / T73054-2015 Appendix A and other standard requirements.

[0006] Instrument features: high-precision temperature sensor; four-channel detection, supporting simultaneous testing of three samples; test generates temperature curve, automatically calculates results and generates reports. In the air duct interlayer at one end of the studio, there are heating / humidifiers, refrigeration evaporators, blower motors, fan blades and other devices; the insulation material is polyurethane foam, which has good insulation effect, and the outer surface of the test box is not frosted or condensed. Continuous PID adjustment, using SSR solid-state relays as heating actuators, safe and reliable, with a separate over-temperature protection system. In addition to the above-mentioned considerations, the corresponding energy regulation measures are added, such as evaporation temperature regulation, energy regulation, and hot gas bypass energy regulation to ensure that the energy consumption of the equipment is reduced while meeting the main technical indicators. Duct system: To ensure a high uniformity index, the test chamber is equipped with an internal circulation air supply system; in the duct interlayer at one end of the working room, there are heaters, refrigeration evaporators, fan blades and other devices; a fan is used to circulate the air in the box. When the fan rotates at high speed, the air in the working room is sucked into the duct from the bottom, and blown out from the top of the duct after heating and cooling. The air after heat exchange with the test sample in the working room is then sucked into the duct and circulated repeatedly to meet the temperature setting requirements.

[0007] For example, the application number 202321802178.9 discloses a textile moisture absorption and heat generation performance tester, including a constant temperature and humidity chamber, the interior of which is provided with a row of support rods in a linear array in the front-to-back direction, and a sample clamping assembly is provided above the row of support rods; the sample clamping assembly includes a pair of brackets fixed on the support rods and arranged symmetrically on the left and right, and a flip plate is rotatably connected between the two brackets, and four temperature sensors linearly evenly distributed in the left and right directions are fixed on the flip plate; an anti-fall net is provided below the flip plate, and the four temperature sensors are electrically connected to a controller, and the controller is connected to a computer. It can adjust the direction of the temperature sensor through the flip plate, which can facilitate the installation of the sample, effectively improve the sample clamping efficiency, and reduce the impact on the test experiment; the anti-fall net can effectively prevent the sample from falling off the temperature sensor during the test, thereby ensuring the effective conduct of the test.

[0008] However, most of the current hygroscopic and heat-generating flannel product testing systems cannot ensure the environmental consistency of the testing system, especially when conducting hygroscopic and heat-generating experiments on dried hygroscopic and heat-generating flannel product samples under the same environment. It is impossible to provide a standard test environment that is not affected by the outside world, that is, sampling from the drying room to the monitoring room with the door open. The influence of the external environment on the experimental results during the manual sampling process affects the authenticity and accuracy of the test data. In addition, the degree of automation of the equipment is not high, and the manual labor intensity is high. Summary of the invention

[0009] The technical problem to be solved by the present invention is to control the environmental consistency of the detection system, especially to carry out hygroscopic and heat-generating experiments on dried hygroscopic and heat-generating flannel product samples under the same environment, to provide a standard test environment that is not affected by the outside world, that is, to avoid opening the door for sampling from the drying room to the monitoring room, to reduce the influence of the external environment on the experimental results during the manual sampling process, to improve the authenticity and accuracy of the test data, and to increase the degree of automation of the equipment and reduce the intensity of manual labor.

[0010] In order to solve the above technical problems, the present invention provides a hygroscopic and heat-generating flannel product detection system, including a monitoring platform, the monitoring platform includes a profile frame, a top plate, a support plate, a bottom plate, a side plate, a door plate, a system head, a control room, a drying room, and a monitoring room; the top plate is fixedly arranged on the top of the profile frame, the bottom plate is fixedly arranged on the bottom of the profile frame, the support plate is fixedly arranged between the top plate and the bottom plate on the profile frame, the side plates are provided with two groups, symmetrically fixedly arranged on both sides of the profile frame, the door plate is movably arranged on the profile frame, and is hingedly connected; the system head is fixedly arranged on one side of the profile frame close to the top plate; a control room is formed between the support plate and the bottom plate, and left and right chambers are formed between the top plate and the support plate, which are a drying room and a monitoring room respectively, and the monitoring room is arranged on the top of the control room; A product drying mechanism for drying experimental cloth is fixedly arranged on one side of the monitoring platform; A product monitoring mechanism for detecting the moisture absorption and heat generation effect of the cloth is fixedly arranged on the other side of the monitoring platform; Preferably, the product drying mechanism comprises a product support frame, a heating chamber, and a heating drying plate; the heating chamber is fixedly arranged on the support plate of the drying chamber, the heating drying plates are provided in multiple groups and are fixedly arranged on the inner wall of the heating chamber, and the support frame is provided in multiple groups and is movably arranged in the heating chamber; Preferably, the product monitoring mechanism includes a variable frequency temperature control fan, a humidity controller, and a temperature sensor; the variable frequency temperature control fan and the humidity controller are fixedly arranged in the control room, and the temperature sensor is provided in multiple groups and is movably arranged in the monitoring room; Preferably, the hygroscopic and heat-generating flannel product detection system also includes a workstation conversion mechanism, which includes a V-shaped track, a supporting movable large plate, a V-shaped groove, a roller rack, a roller wheel, a rack fixing boss, a rack, a motor bracket, a pinion, and a conversion motor; the V-shaped track is provided with two groups, each group is provided with two, which are arranged in parallel and fixedly arranged in the drying chamber and the monitoring chamber respectively; the supporting movable large plate is provided with a V-shaped groove, and roller racks are fixedly arranged on both sides of the V-shaped groove; the roller wheels are provided with multiple groups, which are fixedly arranged on the roller racks A rack fixing boss is fixedly arranged on one side of the V-shaped track, the rack is fixedly arranged on the rack fixing boss, the row of rollers is tangent to the V-shaped surface of the V-shaped track, the motor bracket is provided with two groups, which are respectively fixedly arranged at the two end positions of one side of the supporting movable large plate, the conversion motor is fixedly arranged on the motor bracket, and its shaft end is fixedly connected with the pinion, and the pinion is meshed with the rack for transmission; a plurality of groups of bosses are arranged on the supporting movable large plate to limit the free movement of the product support frame placed on its upper surface; Preferably, the station conversion mechanism further comprises a pre-top support seat and a pre-top roller; the supporting movable large plate is provided with a guide inclined surface perpendicular to the direction of the rack, and the pre-top support seat is provided with two groups, which are fixedly arranged on the supporting plate and arranged facing each other; the pre-top roller is movably arranged on the pre-top support seat; Preferably, the hygroscopic and heat-generating flannel product detection system also includes an automatic door structure, which includes a guide groove plate, a fixed door, a movable door, a first guide boss, a second guide boss, a first connecting plate, a second connecting plate, a guide long groove, a guide bevel groove, a linkage rack, a gear support frame, a door opening gear, and a door opening motor; the guide groove plate is fixedly arranged on the top plate and is located between the drying chamber and the monitoring chamber, the fixed door is fixedly arranged on the material frame between the drying chamber and the monitoring chamber, the movable door is movably arranged on the material frame between the drying chamber and the monitoring chamber, and two sets of connected guide long grooves and guide bevel grooves are provided on the guide groove plate; the first guide boss is connected to the second guide boss via the first guide boss. A connecting plate is fixedly arranged on the top of the movable door, and is movably arranged in the guide long groove and the guide inclined groove; the second guide boss is fixedly arranged on the top of the movable door, and is movably arranged in the guide long groove and the guide inclined groove; a second connecting plate is fixedly arranged on the first guide boss and the second guide boss away from the movable door, the linkage rack is fixedly arranged on the second connecting plate, the gear support frame is provided with two groups, which are fixedly arranged on the upper side of the guide groove plate, the door opening gear is movably arranged between the two groups of gear support frames, the door opening motor is fixedly arranged on one group of the gear support frames, and its shaft end is fixedly connected to the door opening gear, and the door opening gear is meshed with the linkage rack for transmission; Preferably, the automatic door structure further comprises a rack support groove, a support fine shaft, a support roller, a row of rollers support seat, a rack support row of rollers, a guide ramp, and a rack fillet; a rack support groove is provided on the linkage rack, the support fine shaft is fixedly arranged between the two groups of the gear support frames, a plurality of support rollers are provided, which are movably sleeved on the support fine shaft, the row of rollers support seat is fixedly arranged on the guide groove plate, parallel to the linkage rack, a plurality of rack support row of rollers are provided, which are movably arranged on the row of rollers support seat, and are arranged in the rack support groove, the guide ramp is fixedly arranged on the row of rollers support seat close to one end of the linkage rack, and rack fillets are provided at both ends of the linkage rack; Preferably, the hygroscopic and heat-generating flannel product detection system also includes a monitoring clamping mechanism, which includes a profile frame, a movable hinge, a fixed platform, a support plate, a guide column, a power cylinder, and a workstation profile frame; the profile frame is fixedly arranged on the lower side of the top plate, the fixed platform is movably arranged on the profile frame through a plurality of sets of movable hinges, the support plate is fixedly arranged on the fixed platform, the guide column is movably arranged on the support plate through a guide rail, and the support plate and the guide column are connected through the power cylinder to drive the guide column to move up and down along the direction of the support plate; the workstation profile frame is fixedly arranged on the guide column at one end away from the support plate; Preferably, the hygroscopic and heat-generating flannel product detection system also includes a clamping tool, which includes a supporting vertical plate, a clamping mandrel, a mandrel fixing plate, a movable sleeve, a tapered mouth, a tapered guide seat, a tapered guide slope, a clamping claw, a pad, a clamping support arm, a clamping cylinder, a clamping angle seat, a lower pressure ring, a limiting shaft, and a lower pressure ring support seat; the supporting vertical plate is provided with multiple groups, which are fixedly set on the work station profile frame, the clamping mandrel is fixedly set on the supporting vertical plate through the mandrel fixing plate, the movable sleeve is movably set on the clamping mandrel, and the movable sleeve A conical opening is provided on one side near the product support frame, and the conical guide seat is provided with multiple groups, which are evenly fixedly arranged on the side of the clamping mandrel close to the product support frame, and the conical guide seat is provided with a conical guide inclined surface on one side near the conical opening, and the clamping jaws are provided with multiple groups, which are respectively fixedly arranged on the side of the conical guide seat away from the conical guide inclined surface, and the pad is fixedly arranged on the conical guide seat, and the clamping support arm is provided with two groups, which are fixedly arranged on the supporting vertical plate, and the clamping cylinder is fixedly arranged on the clamping angle seat hinged on the clamping support arm, one end of the lower pressure ring is hinged with the clamping angle seat, and the other end is movably hinged with the lower pressure ring support seat fixedly arranged on the supporting vertical plate, one end of the two groups of limiting shafts is movably arranged on the end of the movable sleeve away from the conical opening, and the other end is fixedly arranged on the lower pressure ring; the clamping mandrel is hollow, and the temperature sensor is fixedly arranged in the clamping mandrel and extends downward; A testing process of a hygroscopic and heat-generating flannel product testing system comprises the following steps: S1. The test sample made of flannel products is placed on the support frame, which is arranged in the heating chamber. The system sets a fixed temperature. The test sample made of flannel products is dried by the heating drying plate on the inner wall of the heating chamber to a set value and then left to stand at room temperature. S2, the door opening motor drives the door opening gear to rotate on the linkage rack, and drives the first guide boss and the second guide boss to move along the guide long groove and the guide inclined groove through the second connecting plate to perform door opening and closing movements; S3, when the linked rack moves, the rack support row rollers support the movement in the rack support groove, thereby supporting the movement of the linked rack, and when moving to one side of the fixed door, the rack fillet enters the rack support row rollers through the guide ramp to support the movement of the linked rack; S4. When the supporting movable large plate is exchanged between the drying chamber and the monitoring chamber, the guiding inclined surface preferentially contacts the pre-top roller, so that the supporting row of rollers can smoothly be tangent to the other set of the V-shaped tracks; S5, the conversion motor drives the supporting movable large plate to move linearly on the V-shaped track through the pinion gear. When the plate moves to the V-shaped track of another chamber, one group of the pinion gears meshes with the racks on the other group of the rack fixing bosses to achieve continued transmission; S6, the power cylinder drives the guide column and the workstation profile frame to move up and down, thereby driving the product support frame to move up and down; S7, the clamping cylinder moves downward through the clamping angle seat and the lower pressure ring, and the lower pressure ring is hinged and rotated along the lower pressure ring support seat, driving the limit shaft to press the movable sleeve to move downward, thereby driving the conical guide inclined surface on the conical mouth to press the conical guide seat to contract inward and clamp the product support frame, so that the temperature sensor enters the test product; S8. When using, when the test sample made of flannel products is subjected to a moisture absorption and heating experiment, the variable frequency temperature control fan adjusts the temperature of the monitoring room, and the humidity controller adjusts the humidity of the monitoring room to achieve the preset simulated experimental environment conditions. When conducting the laboratory, the test sample made of flannel products is wrapped around the temperature sensor, and the temperature sensor feeds back the temperature change of the test sample during the experiment to the system in real time; Compared with the prior art, the present invention has the following beneficial effects: 1. By setting up the product drying mechanism, the hygroscopic and heat-generating flannel product sample cloth can be pre-dried to provide drying conditions for the later stage of detection. At the same time, the sample drying conditions can be effectively controlled to be consistent, and the environmental consistency of the detection system can be controlled.

[0011] 2. By setting up a product monitoring mechanism, the dried hygroscopic and heat-generating flannel product samples are subjected to hygroscopic and heat-generating experiments under the same environment, providing a standard test environment that is not affected by the outside world, thereby improving the validity and credibility of the test results.

[0012] 3. By setting up a workstation conversion mechanism, it is avoided to open the door for sampling from the drying room to the monitoring room, and the influence of the external environment on the experimental results during manual sampling is avoided, the authenticity and accuracy of the test data are controlled, and at the same time the automation degree of the equipment is improved and the labor intensity is reduced.

[0013] 4. By setting up an automatic door structure, the drying room and the monitoring room are separated during operation. When the experimental area is changed, the door is opened automatically, providing an operating channel for the workstation conversion mechanism and improving the degree of automation of the system.

[0014] 5. By setting up a monitoring clamping mechanism, the process of manually laying the test sample cloth around the temperature sensor for temperature detection is avoided. The whole process is automatically controlled, which avoids the possibility of human operation errors and the influence of external environmental factors on the test results, and improves the credibility of the test results and the consistency of the experimental environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The present invention is further described in detail below in conjunction with the accompanying drawings: Figure 1 It is the front view of the present invention; Figure 2 It is a left side view of the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the present invention; Figure 4 for Figure 1 Schematic diagram of the structure of the cross section in the AA direction; Figure 5 for Figure 4 A partial enlarged schematic diagram of the middle B area; Figure 6 A top view of the present invention; Figure 7 for Figure 6 A partial enlarged schematic diagram of the middle C area; Figure 8 for Figure 1 Schematic diagram of the structure of the cross section in the middle DD direction; Fig. 9 for Figure 8 A partial enlarged schematic diagram of the middle E area; Fig.10 for Figure 2 Schematic diagram of the structure of the cross section in the FF direction; Fig.11 for Fig.10 A partial enlarged schematic diagram of the middle G area; Fig.12 for Fig.11 Schematic diagram of the structure of the cross section in the HH direction; Fig.13 for Fig.12 A partial enlarged schematic diagram of the middle J region; In the figure: 1. Monitoring platform; 101. Profile frame; 102. Top plate; 103. Support plate; 104. Bottom plate; 105. Side plate; 106. Door plate; 107. System head; 108. Control room; 109. Drying room; 110. Monitoring room; 2. Product drying mechanism; 201. Product support frame; 202. Heating room; 203. Heating drying plate; 3. Product monitoring mechanism; 301. Variable frequency temperature control fan; 302. Humidity controller; 303. Temperature sensor; 4. Workstation conversion mechanism; 4 01, V-shaped track; 402, supporting movable large plate; 403, V-shaped groove; 404, row roller frame; 405, row roller wheel; 406, rack fixing boss; 407, rack; 408, motor bracket; 409, pinion; 410, conversion motor; 411, guide slope; 412, pre-top support seat; 413, pre-top roller; 5, automatic door structure; 501, guide groove plate; 502, fixed door; 503, movable door; 504, first guide boss; 505, second guide boss; 506, First connecting plate; 507, second connecting plate; 508, long guide groove; 509, inclined guide groove; 510, linked rack; 511, gear support frame; 512, door opening gear; 513, rack support groove; 514, support thin shaft; 515, support roller; 516, row roller support seat; 517, rack support row roller; 518, inclined guide platform; 519, rack fillet; 520, door opening motor; 6, monitoring clamping mechanism; 601, profile frame; 602, movable hinge; 603, fixed platform; 60 4. Supporting plate; 605. Guide column; 606. Power cylinder; 607. Work station profile frame; 7. Clamping tool; 701. Supporting plate; 702. Clamping mandrel; 703. Mandrel fixing plate; 704. Movable sleeve; 705. Conical mouth; 706. Conical guide seat; 707. Conical guide bevel; 708. Clamping claw; 709. Pad; 710. Clamping support arm; 711. Clamping cylinder; 712. Clamping angle seat; 713. Lower pressure ring; 714. Limiting shaft; 715. Lower pressure ring support seat; DETAILED DESCRIPTION Example 1

[0016] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] See also Figure 1-Figure 13 A hygroscopic and heat-generating flannel product detection system includes a monitoring station 1, wherein the monitoring station 1 includes a profile frame 101, a top plate 102, a support plate 103, a bottom plate 104, a side plate 105, a door plate 106, a system head 107, a control room 108, a drying room 109, and a monitoring room 110; the top plate 102 is fixedly arranged on the top of the profile frame 101, the bottom plate 104 is fixedly arranged on the bottom of the profile frame 101, and the support plate 103 is fixedly arranged on the top plate 102 and the bottom plate 104 on the profile frame 101. The side panels 105 are provided with two groups, which are symmetrically fixed on both sides of the profile frame 101, and the door panels 106 are movably provided on the profile frame 101 and are hingedly connected; the system head 107 is fixedly provided on the side of the profile frame 101 close to the top panel 102; the support plate 103 and the bottom panel 104 form a control room 108, and the top panel 102 and the support plate 103 form two left and right chambers, namely a drying room 109 and a monitoring room 110, and the monitoring room 110 is provided on the top of the control room 108; A product drying mechanism 2 for drying experimental cloth is fixedly arranged on one side of the monitoring platform 1; A product monitoring mechanism 3 for detecting the moisture absorption and heat generation effect of the cloth is fixedly arranged on the other side of the monitoring platform 1; In some embodiments, see Figure 2 The product drying mechanism 2 includes a product support frame 201, a heating chamber 202, and a heating and drying plate 203; the heating chamber 202 is fixedly arranged on the support plate 103 of the drying chamber 109, and the heating and drying plates 203 are provided with multiple groups and are fixedly arranged on the inner wall of the heating chamber 202; the support frame 201 is provided with multiple groups and is movably arranged in the heating chamber 202; when in use, a test sample made of flannel products is placed on the support frame 201, and the support frame 201 is arranged in the heating chamber 202; the system sets a fixed temperature, and the heating and drying plates 203 on the inner wall of the heating chamber 202 dry the test sample made of flannel products to a set value and then let it stand to room temperature; by setting up the product drying mechanism, the hygroscopic and heat-generating flannel product sample cloth can be pre-dried to provide drying conditions for the later stage detection, and at the same time, the sample drying conditions can be effectively guaranteed to be consistent, thereby ensuring the environmental consistency of the detection system.

[0018] In some embodiments, see Figure 2 , Fig.13 The product monitoring mechanism 3 includes a variable frequency temperature control fan 301, a humidity controller 302, and a temperature sensor 303; the variable frequency temperature control fan 301 and the humidity controller 302 are fixedly arranged in the control room 108, and the temperature sensor 303 is provided with multiple groups and movably arranged in the monitoring room 110; when in use, when a hygroscopic and heat-generating experiment is carried out on a test sample made of flannel products, the variable frequency temperature control fan 301 adjusts the temperature of the monitoring room 110, and the humidity controller 302 adjusts the humidity of the monitoring room 110 to achieve the preset simulated experimental environment conditions, when the laboratory is carried out, the test sample made of flannel products is wrapped around the temperature sensor 303, and the temperature sensor 303 feeds back the temperature change of the temperature test sample during the experiment to the system in real time; by setting up the product monitoring mechanism, under the same environment, the hygroscopic and heat-generating experiment is carried out on the dried hygroscopic and heat-generating flannel product sample cloth under the same environment, providing a standard test environment that is not affected by the outside world, thereby improving the validity and credibility of the test results.

[0019] In some embodiments, see Figure 5The hygroscopic and heat-generating flannel product detection system also includes a station conversion mechanism 4, which includes a V-shaped track 401, a supporting movable large plate 402, a V-shaped groove 403, a roller rack 404, a roller wheel 405, a rack fixing boss 406, a rack 407, a motor bracket 408, a pinion 409, and a conversion motor 410; the V-shaped track 401 is provided with two groups, each group is provided with two, which are arranged in parallel and fixed in the drying chamber 109 and the monitoring chamber 110 respectively. The supporting movable large plate 402 is provided with a V-shaped groove 403, and roller racks 404 are fixedly arranged on both sides of the V-shaped groove 403. The roller racks 405 are provided with multiple groups and are fixedly arranged on the roller racks 404. A rack fixing boss 406 is fixedly arranged on one side of the V-shaped track 401, and the rack 407 is fixedly arranged on the rack fixing boss 406. The roller racks 405 are tangent to the V-shaped surface of the V-shaped track 401. The motor bracket 408 is provided with two groups, which are respectively fixedly arranged The conversion motor 410 is placed at the two end positions on one side of the supporting movable large plate 402, and is fixedly arranged on the motor bracket 408, and its shaft end is fixedly connected to the pinion 409, and the pinion 409 is meshed with the rack 407 for transmission; a plurality of groups of bosses are arranged on the supporting movable large plate 402 to limit the free movement of the product support frame 201 placed on its upper surface; when in use, the conversion motor 410 drives the supporting movable large plate 402 to move linearly on the V-shaped track 401 through the pinion 409, and when moving to the V-shaped track 401 of another chamber, one group of the pinions 409 meshes with the rack 407 on another group of the rack fixed bosses 406 to achieve continued transmission; by setting up a workstation conversion mechanism, the door opening sampling from the drying chamber to the monitoring chamber is avoided, and the influence of the external environment on the experimental results during the manual sampling process is avoided, thereby ensuring the authenticity and accuracy of the test data, while improving the degree of automation of the equipment and reducing the intensity of manual labor.

[0020] In some embodiments, see Figure 1 , Figure 5 The workstation conversion mechanism 4 also includes a pre-top support seat 412 and a pre-top roller 413; the supporting movable large plate 402 is provided with a guide inclined surface 411 perpendicular to the direction of the rack 407, and the pre-top support seat 412 is provided with two groups, which are fixedly arranged on the supporting plate 103 and arranged opposite to each other; the pre-top roller 413 is movably arranged on the pre-top support seat 412, and when in use, when the supporting movable large plate 402 is exchanged between the drying chamber 109 and the monitoring chamber 110, the guide inclined surface 411 preferentially contacts the pre-top roller 413, so that the supporting row of rollers 405 can smoothly be tangent to the other group of the V-shaped tracks 401; In some embodiments, see Figure 6-9The hygroscopic and heat-generating flannel product detection system also includes an automatic door structure 5, which includes a guide groove plate 501, a fixed door 502, a movable door 503, a first guide boss 504, a second guide boss 505, a first connecting plate 506, a second connecting plate 507, a guide long groove 508, a guide inclined groove 509, a linkage rack 510, a gear support frame 511, a door opening gear 512, and a door opening motor 520; the guide groove plate 501 is fixedly arranged on the top plate 102 and located between the drying chamber 109 and the monitoring chamber 110, and the fixed door 502 is fixedly arranged at The movable door 503 is movably arranged on the material frame 101 between the drying chamber 109 and the monitoring chamber 110, and the guide groove plate 501 is provided with two sets of connected guide long grooves 508 and guide inclined grooves 509; the first guide boss 504 is fixedly arranged on the top of the movable door 503 through the first connecting plate 506, and is movably arranged in the guide long grooves 508 and guide inclined grooves 509; the second guide boss 505 is fixedly arranged on the top of the movable door 503, and is movably arranged in the guide long grooves 508 and guide inclined grooves 509; The first guide boss 504 and the second guide boss 505 are fixedly provided with a second connecting plate 507 on the side away from the movable door 503, and the linkage rack 510 is fixedly provided on the second connecting plate 507. The gear support frame 511 is provided with two groups, which are fixedly provided on the upper side of the guide groove plate 501. The door opening gear 512 is movably provided between the two groups of the gear support frames 511. The door opening motor 520 is fixedly provided on one group of the gear support frames 511, and its shaft end is fixedly provided with the door opening gear 512. The door opening gear 512 is fixedly connected and meshes with the linkage rack 510 for transmission; when in use, the door opening motor 520 drives the door opening gear 512 to rotate on the linkage rack 510, and drives the first guide boss 504 and the second guide boss 505 to move along the guide long groove 508 and the guide inclined groove 509 through the second connecting plate 507 to open and close the door; by setting up an automatic door structure, the drying chamber and the monitoring chamber are separated during operation, and the door is automatically opened when the experimental area is changed, providing an operating channel for the workstation conversion mechanism, thereby improving the degree of automation of the system.

[0021] In some embodiments, see Fig. 9The automatic door structure 5 also includes a rack support groove 513, a support thin shaft 514, a support roller 515, a row roller support seat 516, a rack support row roller 517, a guide ramp 518, and a rack fillet 519; the linkage rack 510 is provided with a rack support groove 513, the support thin shaft 514 is fixedly arranged between two groups of the gear support frames 511, the support roller 515 is provided with multiple groups, and is movably sleeved on the support thin shaft 514, the row roller support seat 516 is fixedly arranged on the guide groove plate 501, and is parallel to the linkage rack 510, and the rack support row roller 517 is provided with multiple groups, and is movably arranged on The row roller support seat 516 is arranged in the rack support groove 513, and the guide ramp 518 is fixedly arranged on the row roller support seat 516 near one end of the linkage rack 510, and rack fillets 519 are arranged at both ends of the linkage rack 510; when in use, when the linkage rack 510 moves, the rack support row roller 517 supports the movement in the rack support groove 513, thereby supporting the movement of the linkage rack 510, and when moving to the side of the fixed door 502, the rack fillet 519 enters the rack support row roller 517 through the guide ramp 518, supporting the movement of the linkage rack 510; In some embodiments, see Figure 10-11 The hygroscopic and heat-generating flannel product detection system also includes a monitoring clamping mechanism 6, which includes a profile frame 601, a movable hinge 602, a fixed platform 603, a support vertical plate 604, a guide column 605, a power cylinder 606, and a workstation profile frame 607; the profile frame 601 is fixedly arranged on the lower side of the top plate 102, the fixed platform 603 is movably arranged on the profile frame 601 through multiple groups of movable hinges 602, the support vertical plate 604 is fixedly arranged on the fixed platform 603, the guide column 605, the power cylinder 606, and the workstation profile frame 607; the profile frame 601 is fixedly arranged on the lower side of the top plate 102, the fixed platform 603 is movably arranged on the profile frame 601 through multiple groups of movable hinges 602, the support vertical plate 604 is fixedly arranged on the fixed platform 603, the guide column 605 The column 605 is movably arranged on the supporting plate 604 through the guide rail, and is connected to the supporting plate 604 and the guide column 605 through the power cylinder 606, driving the guide column 605 to move up and down along the direction of the supporting plate 604; the station profile frame 607 is fixedly arranged on the end of the guide column 605 away from the supporting plate 604; when in use, the power cylinder 606 drives the guide column 605 and the station profile frame 607 to move up and down, thereby driving the product support frame 201 to move up and down; In some embodiments, see Figure 12-13The hygroscopic and heat-generating flannel product detection system also includes a clamping tool 7, which includes a support plate 701, a clamping mandrel 702, a mandrel fixing plate 703, a movable sleeve 704, a tapered mouth 705, a tapered guide seat 706, a tapered guide slope 707, a clamping claw 708, a cushion block 709, a clamping support arm 710, a clamping cylinder 711, a clamping angle seat 712, a lower pressure ring 713, a limiting shaft 714, and a lower pressure ring support seat 715; the support plate 701 is provided with multiple groups, which are fixedly set on the work station profile frame 607, the clamping mandrel 702 is fixedly set on the support plate 701 through the mandrel fixing plate 703, the movable sleeve 704 is movably sleeved on the clamping mandrel 702, and the The movable sleeve 704 is provided with a tapered opening 705 on the side close to the product support frame 201, the tapered guide seat 706 is provided with multiple groups, and is evenly fixedly arranged on the side of the clamping mandrel 702 close to the product support frame 201, the tapered guide seat 706 is provided with a tapered guide inclined surface 707 on the side close to the tapered opening 705, the clamping jaws 708 are provided with multiple groups, and are respectively fixedly arranged on the side of the tapered guide seat 706 away from the tapered guide inclined surface 707, the cushion block 709 is fixedly arranged on the tapered guide seat 706, the clamping support arm 710 is provided with two groups, and is fixedly arranged on the supporting vertical plate 701, and the clamping cylinder 711 is fixedly arranged on the clamping angle seat 712 hinged to the clamping support arm 710, One end of the lower pressure ring 713 is hinged to the clamping angle seat 712, and the other end is hinged to the lower pressure ring support seat 715 fixedly set on the supporting vertical plate 701. One end of the two sets of limiting shafts 714 is movably set on the end of the movable sleeve 704 away from the tapered mouth 705, and the other end is fixedly set on the lower pressure ring 713; the clamping mandrel 702 is hollow, and the temperature sensor 303 is fixedly set in the clamping mandrel 702 and extends downward; when in use, the clamping cylinder 711 moves downward through the clamping angle seat 712 and the lower pressure ring 713 to press the lower pressure ring 713 along the The lower pressure ring support seat 715 is hinged and rotated, driving the limiting shaft 714 to press the movable sleeve 704 to move downward, thereby driving the conical guide slope 707 on the conical mouth 705 to press the conical guide seat 706 to shrink inward and clamp the product support frame 201, so that the temperature sensor 303 enters the test product; by setting up a monitoring clamping mechanism, the process of manually laying the test sample cloth around the temperature sensor for temperature detection is avoided, and the whole process is automatically controlled, avoiding the possibility of human operation errors and the influence of external environmental factors on the test results, thereby improving the credibility of the test results and the consistency of the experimental environment.

[0022] A testing process of a hygroscopic and heat-generating flannel product testing system comprises the following steps: S1. The test sample made of flannel products is placed on the support frame 201, and the support frame 201 is set in the heating chamber 202. The system sets a fixed temperature, and the heating drying plate 203 on the inner wall of the heating chamber 202 dries the test sample made of flannel products to a set value and then leaves it to stand at room temperature; S2, the door opening motor 520 drives the door opening gear 512 to rotate on the linkage rack 510, and drives the first guide boss 504 and the second guide boss 505 to move along the guide long groove 508 and the guide inclined groove 509 through the second connecting plate 507 to open and close the door; S3. When the linkage rack 510 moves, the rack support row rollers 517 support the movement in the rack support groove 513, thereby supporting the linkage rack 510 to move. When the linkage rack 510 moves to the side of the fixed door 502, the rack fillet 519 enters the rack support row rollers 517 through the guide ramp 518, supporting the movement of the linkage rack 510. S4, when the supporting movable large plate 402 is exchanged between the drying chamber 109 and the monitoring chamber 110, the guiding inclined surface 411 contacts the pre-top roller 413 first, so that the supporting row roller 405 can smoothly be tangent to the other set of the V-shaped tracks 401; S5, the conversion motor 410 drives the supporting movable large plate 402 to move linearly on the V-shaped track 401 through the pinion 409. When it moves to the V-shaped track 401 of another chamber, one group of the pinion 409 meshes with the rack 407 on the other group of the rack fixing boss 406 to achieve continued transmission; S6, the power cylinder 606 drives the guide column 605 and the station profile frame 607 to move up and down, thereby driving the product support frame 201 to move up and down; S7, the clamping cylinder 711 moves downward through the clamping angle seat 712 and the lower pressure ring 713 to press the lower pressure ring 713 to hinge and rotate along the lower pressure ring support seat 715, driving the limiting shaft 714 to press the movable sleeve 704 to move downward, thereby driving the conical guide inclined surface 707 on the conical mouth 705 to press the conical guide seat 706 to contract inwardly and clamp the product support frame 201, so that the temperature sensor 303 enters the test product; S8. When using, when the test sample made of flannel products is subjected to a moisture absorption and heating experiment, the variable frequency temperature control fan 301 adjusts the temperature of the monitoring chamber 110, and the humidity regulator 302 adjusts the humidity of the monitoring chamber 110 to achieve the preset simulated experimental environment conditions. When conducting the laboratory, the test sample made of flannel products is wrapped around the temperature sensor 303, and the temperature sensor 303 feeds back the temperature change of the temperature test sample during the experiment to the system in real time; Obviously, the above embodiments are merely examples for clearly explaining the present invention, and are not intended to limit the implementation methods of the present invention. For those skilled in the art, other different forms of changes or modifications can be made based on the above description. It is not necessary and impossible to list all the implementation methods here. However, these obvious changes or modifications derived from the spirit of the present invention are still within the protection scope of the present invention.

Claims

1. A hygroscopic and heat-generating flannel product detection system, characterized in that: The monitoring platform (1) comprises a profile frame (101), a top plate (102), a support plate (103), a bottom plate (104), a side plate (105), a door plate (106), a system head (107), a control room (108), a drying room (109), and a monitoring room (110); the top plate (102) is fixedly arranged on the top of the profile frame (101), the bottom plate (104) is fixedly arranged on the bottom of the profile frame (101), the support plate (103) is fixedly arranged between the top plate (102) and the bottom plate (104) on the profile frame (101), and the The side panels (105) are provided in two groups and are symmetrically fixedly arranged on both sides of the profile frame (101); the door panels (106) are movably arranged on the profile frame (101) and are hingedly connected; the system head (107) is fixedly arranged on a side of the profile frame (101) close to the top panel (102); a control room (108) is formed between the support plate (103) and the bottom panel (104); and left and right chambers are formed between the top panel (102) and the support plate (103), namely a drying room (109) and a monitoring room (110); the monitoring room (110) is arranged on the top of the control room (108); A product drying mechanism (2) for drying the test cloth is fixedly arranged on one side of the monitoring platform (1); A product monitoring mechanism (3) for detecting the moisture absorption and heat generation effect of cloth is fixedly arranged on the other side of the monitoring platform (1).

2. A hygroscopic and heat-generating flannel product detection system according to claim 1, characterized in that: The product drying mechanism (2) comprises a product support frame (201), a heating chamber (202), and a heating drying plate (203); the heating chamber (202) is fixedly arranged on the support plate (103) of the drying chamber (109); the heating drying plates (203) are provided in multiple groups and are fixedly arranged on the inner wall of the heating chamber (202); and the support frame (201) is provided in multiple groups and is movably arranged in the heating chamber (202).

3. A hygroscopic and heat-generating flannel product detection system according to claim 2, characterized in that: The product monitoring mechanism (3) comprises a variable frequency temperature control fan (301), a humidity controller (302), and a temperature sensor (303); the variable frequency temperature control fan (301) and the humidity controller (302) are fixedly arranged in the control room (108), and the temperature sensors (303) are arranged in multiple groups and movably arranged in the monitoring room (110).

4. A hygroscopic and heat-generating flannel product detection system according to claim 3, characterized in that: The hygroscopic and heat-generating flannel product detection system also includes a workstation conversion mechanism (4), which includes a V-shaped track (401), a supporting movable plate (402), a V-shaped groove (403), a roller rack (404), a roller wheel (405), a rack fixing boss (406), a rack (407), a motor bracket (408), a pinion (409), and a conversion motor (410); the V-shaped track (401) is provided with two groups, each group is provided with two gears, which are arranged in parallel and are respectively fixed in the drying chamber (109) and the monitoring chamber (110); the supporting movable plate (402) is provided with a V-shaped groove (403), and roller racks (404) are fixedly arranged on both sides of the V-shaped groove (403); the roller wheels (405) are provided with multiple groups, which are fixedly arranged On the row roller frame (404), a rack fixing boss (406) is fixedly provided on one side of the V-shaped track (401), the rack (407) is fixedly provided on the rack fixing boss (406), the row roller wheel (405) is tangent to the V-shaped surface of the V-shaped track (401), the motor bracket (408) is provided with two groups, which are respectively fixedly provided at the two end positions of one side of the supporting movable plate (402), the conversion motor (410) is fixedly provided on the motor bracket (408), and its shaft end is fixedly connected to the pinion (409), and the pinion (409) is meshed with the rack (407) for transmission; a plurality of groups of bosses are provided on the supporting movable plate (402) to limit the free movement of the product support frame (201) placed on its upper surface.

5. A hygroscopic and heat-generating flannel product detection system according to claim 4, characterized in that: The workstation conversion mechanism (4) further comprises a pre-top support seat (412) and a pre-top roller (413); the supporting movable large plate (402) is provided with a guide inclined surface (411) perpendicular to the direction of the rack (407); the pre-top support seat (412) is provided with two groups, fixedly arranged on the supporting plate (103) and arranged facing each other; the pre-top roller (413) is movably arranged on the pre-top support seat (412).

6. A hygroscopic and heat-generating flannel product detection system according to claim 5, characterized in that: The hygroscopic and heat-generating flannel product detection system further comprises an automatic door structure (5), wherein the automatic door structure (5) comprises a guide groove plate (501), a fixed door (502), a movable door (503), a first guide boss (504), a second guide boss (505), a first connecting plate (506), a second connecting plate (507), a guide long groove (508), a guide inclined groove (509), a linkage rack (510), a gear support frame (511), a door opening gear (512), and a door opening motor (520); the guide groove plate (50 1) fixedly arranged on the top plate (102) and located between the drying chamber (109) and the monitoring chamber (110), the fixed door (502) fixedly arranged on the material frame (101) between the drying chamber (109) and the monitoring chamber (110), the movable door (503) movably arranged on the material frame (101) between the drying chamber (109) and the monitoring chamber (110), and the guide groove plate (501) is provided with two sets of connected guide long grooves (508) and guide inclined grooves (509); The first guide boss (504) is fixedly arranged on the top of the movable door (503) via the first connecting plate (506), and is movably arranged in the guide long groove (508) and the guide inclined groove (509); the second guide boss (505) is fixedly arranged on the top of the movable door (503), and is movably arranged in the guide long groove (508) and the guide inclined groove (509); a second connecting plate (507) is fixedly arranged on the side of the first guide boss (504) and the second guide boss (505) away from the movable door (503); ), the linkage rack (510) is fixedly arranged on the second connecting plate (507), two groups of gear support frames (511) are provided and fixedly arranged on the upper side of the guide groove plate (501), the door opening gear (512) is movably arranged between the two groups of gear support frames (511), the door opening motor (520) is fixedly arranged on one group of the gear support frames (511), and its shaft end is fixedly connected to the door opening gear (512), and the door opening gear (512) is meshed with the linkage rack (510) for transmission.

7. A hygroscopic and heat-generating flannel product detection system according to claim 6, characterized in that: The automatic door structure (5) further comprises a rack support groove (513), a support thin shaft (514), a support roller (515), a row roller support seat (516), a rack support row roller (517), a guide ramp (518), and a rack fillet (519); the linkage rack (510) is provided with a rack support groove (513), the support thin shaft (514) is fixedly arranged between two groups of the gear support frames (511), and the support roller (515) is provided with a plurality of groups and is movably sleeved on the support thin shaft (51 4), the row roller support seat (516) is fixedly arranged on the guide groove plate (501) and is parallel to the linked rack (510), the rack supporting row rollers (517) are provided with multiple groups, movably arranged on the row roller support seat (516), and arranged in the rack supporting groove (513), the guide ramp (518) is fixedly arranged on the row roller support seat (516) near one end of the linked rack (510), and rack fillets (519) are arranged at both ends of the linked rack (510).

8. A hygroscopic and heat-generating flannel product detection system according to claim 7, characterized in that: The hygroscopic and heat-generating flannel product detection system further comprises a monitoring clamping mechanism (6), wherein the monitoring clamping mechanism (6) comprises a profile frame (601), a movable hinge (602), a fixed platform (603), a supporting vertical plate (604), a guide column (605), a power cylinder (606), and a workstation profile frame (607); the profile frame (601) is fixedly arranged on the lower side of the top plate (102), and the fixed platform (603) is movably arranged on the profile frame (601) through a plurality of sets of movable hinges (602). 1), the support plate (604) is fixedly arranged on the fixed platform (603), the guide column (605) is movably arranged on the support plate (604) through a guide rail, and the power cylinder (606) is connected to the support plate (604) and the guide column (605) to drive the guide column (605) to move up and down along the direction of the support plate (604); the workstation profile frame (607) is fixedly arranged on the end of the guide column (605) away from the support plate (604).

9. A hygroscopic and heat-generating flannel product detection system according to claim 8, characterized in that: The hygroscopic and heat-generating flannel product detection system also includes a clamping tool (7), which includes a supporting plate (701), a clamping mandrel (702), a mandrel fixing plate (703), a movable sleeve (704), a conical mouth (705), a conical guide seat (706), a conical guide bevel (707), a clamping claw (708), a cushion block (709), a clamping support arm (710), a clamping cylinder (711), a clamping angle seat (712), a lower pressure ring (713), a limiting shaft (714), and a lower pressure ring support seat (715); the supporting plate (701) is provided with a plurality of groups, which are fixedly arranged on the workstation profile frame (607); the clamping mandrel (702) is fixedly arranged on the supporting plate (701) through the mandrel fixing plate (703); the movable sleeve (704) is movably sleeved on the clamping mandrel (702) ), the movable sleeve (704) is provided with a conical opening (705) on the side close to the product support frame (201), the conical guide seat (706) is provided with multiple groups, which are evenly fixedly arranged on the side of the clamping mandrel (702) close to the product support frame (201), the conical guide seat (706) is provided with a conical guide inclined surface (707) on the side close to the conical opening (705), the clamping claw (708) is provided with multiple groups, which are respectively fixedly arranged on the side of the conical guide seat (706) away from the conical guide inclined surface (707), the cushion block (709) is fixedly arranged on the conical guide seat (706), the clamping support arm (710) is provided with two groups, which are fixedly arranged on the supporting vertical plate (701), and the clamping cylinder (711) is fixedly arranged on the clamping angle seat (712) hinged to the clamping support arm (710), One end of the lower pressure ring (713) is hinged to the clamping angle seat (712), and the other end is movably hinged to the lower pressure ring support seat (715) fixedly set on the supporting vertical plate (701); one end of the two groups of limit shafts (714) is movably set on the end of the movable sleeve (704) away from the conical mouth (705), and the other end is fixedly set on the lower pressure ring (713); the clamping core shaft (702) is hollow, and the temperature sensor (303) is fixedly set in the clamping core shaft (702) and extends downward.

10. The testing process of the hygroscopic and heat-generating flannel product testing system according to claim 9, characterized in that: The steps include: S1, a test sample made of flannel products is placed on the support frame (201), the support frame (201) is arranged in the heating chamber (202), the system is set to a fixed temperature, and the test sample made of flannel products is dried by the heating drying plate (203) on the inner wall of the heating chamber (202) to a set value and then left to stand at room temperature; S2, the door opening motor (520) drives the door opening gear (512) to rotate on the linkage rack (510), and drives the first guide boss (504) and the second guide boss (505) to move along the guide long groove (508) and the guide inclined groove (509) through the second connecting plate (507), thereby performing door opening and closing movements; S3. When the linked rack (510) moves, the rack support row rollers (517) support the movement in the rack support groove (513), thereby supporting the movement of the linked rack (510); when the linked rack (510) moves to one side of the fixed door (502), the rack fillet (519) enters the rack support row rollers (517) through the guide ramp (518), thereby supporting the movement of the linked rack (510); S4, when the supporting movable large plate (402) is exchanged between the drying chamber (109) and the monitoring chamber (110), the guiding inclined surface (411) preferentially contacts the pre-top roller (413), so that the supporting row rollers (405) are smoothly tangent to the other set of the V-shaped tracks (401); S5, the conversion motor (410) drives the supporting movable large plate (402) to move linearly on the V-shaped track (401) through the pinion gear (409), and when it moves to the V-shaped track (401) of another chamber, one group of the pinion gears (409) meshes with the racks (407) on the other group of the rack fixing bosses (406), thereby realizing continued transmission; S6, the power cylinder (606) drives the guide column (605) and the workstation profile frame (607) to move up and down, thereby driving the product support frame (201) to move up and down; S7, the clamping cylinder (711) moves downward through the clamping angle seat (712) and the lower pressure ring (713), and the lower pressure ring (713) is hinged and rotated along the lower pressure ring support seat (715), driving the limit shaft (714) to press the movable sleeve (704) to move downward, thereby driving the conical guide inclined surface (707) on the conical mouth (705) to press the conical guide seat (706) to contract inward and clamp the product support frame (201), so that the temperature sensor (303) enters the test product; S8. During use, when a moisture absorption and heating experiment is conducted on a test sample made of flannel products, the variable frequency temperature control fan (301) adjusts the temperature of the monitoring room (110), and the humidity controller (302) adjusts the humidity of the monitoring room (110) to achieve preset simulated experimental environmental conditions. When conducting a laboratory experiment, the test sample made of flannel products is wrapped around the temperature sensor (303), and the temperature sensor (303) feeds back the temperature change of the test sample during the experiment to the system in real time.

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