Treatment device and method for antibiosis and deodorization of fiber fabric

Abstract

The invention relates to the technical field of fiber fabric processing, in particular to a fiber fabric antibiosis and deodorization treatment device which comprises a pretreatment part and a soaking pool which are arranged side by side, a power traction mechanism arranged on the pretreatment part and the soaking pool, and a re-softening mechanism arranged on the side face of the soaking pool and the power traction mechanism. The device comprises a soaking tank, a pre-processing part connected to the tail part of the soaking tank, a pushing and stirring mechanism obliquely arranged and extending into the soaking tank, and a weighting part connected to the tail part of the pre-processing part, and under the combined action of a power traction mechanism and the weighting part, the fiber fabric can be sufficiently and obliquely stretched in the soaking tank, so that the condition of stacking of the fabric is effectively avoided; all the parts can be fully combined with the antibacterial deodorant, so that the antibacterial deodorant on the treated fabric is prevented from being distributed unevenly, and the antibacterial deodorant treatment quality is ensured.

Description

Technical Field

[0001] The invention relates to the technical field of fiber fabric processing, and in particular to a device and method for treating fiber fabrics with antibacterial and deodorizing properties. Background Art

[0002] In modern life, fiber fabrics are widely used in various textiles and clothing due to their good moisture absorption, breathability, softness and environmental protection. However, due to their porous structure and large specific surface area, coupled with the ubiquitous bacteria in people's living environment, fiber fabrics easily absorb moisture, grease, sweat, etc., becoming a breeding ground for bacteria and mold. Especially in the rainy season or in humid climate zones, bacteria will multiply rapidly, fabric fibers will be corroded, and emit odors, seriously affecting the use and wearing experience.

[0003] Therefore, when producing fiber fabrics, the fabrics are generally treated with antibacterial and deodorizing agents. Through antibacterial and deodorizing agents, the growth of bacteria can be effectively inhibited, the generation of odor can be reduced, the user experience of fiber products can be maintained, and the quality and durability can be improved.

[0004] There are many methods for antibacterial and deodorizing treatment of fiber fabrics. Among them, the method of directly immersing the fabric in a solution containing an antibacterial and deodorizing agent has been widely used. This treatment method is suitable for various types of fiber fabrics, so that manufacturers can provide antibacterial and deodorizing treatment functions for different types of products to meet the diverse needs of the market. However, this method has some disadvantages: first, the fiber fabric is statically immersed in the solution and can only passively combine with the antibacterial and deodorizing agent in the solution. Therefore, the antibacterial and deodorizing agent is not deeply penetrated into the fabric, and the combination of the two is not high. Even after immersion, the antibacterial and deodorizing agent is only attached to the fiber surface, resulting in the antibacterial and deodorizing effect of the fabric is not lasting. As the use progresses, its effect will rapidly weaken and the durability is poor; secondly, during the immersion process, the fabric will be stacked in the solution. Therefore, the stacking surface is very likely to have uneven distribution of antibacterial and deodorizing agents relative to other surfaces, and the uneven treatment will lead to poor antibacterial and deodorizing effects in some areas, affecting the quality of the final product; in addition, some antibacterial and deodorizing agents may change the surface state of the fiber during the treatment process, causing the fiber surface to become stiff, thereby affecting the softness and comfort of the fabric. Summary of the invention

[0005] The purpose of the present invention is to provide a device for treating fiber fabrics with antibacterial and deodorizing properties to solve the above problems.

[0006] In order to achieve the above-mentioned object, the present invention provides a processing device for antibacterial and deodorizing fiber fabrics, characterized in that it comprises: a pretreatment part and a soaking tank arranged side by side, a power traction mechanism arranged on the pretreatment part and the soaking tank, a re-softening mechanism arranged on the side of the soaking tank and on the power traction mechanism, a pushing and stirring mechanism arranged obliquely and extending into the soaking tank, and a weighting part connected to the tail of the pretreatment part, wherein:

[0007] The power traction mechanism is suitable for clamping the external fiber fabric and dragging it forward at a constant speed, so that the external fiber fabric can smoothly pass through the pretreatment part and the soaking tank in sequence to reach the re-softening mechanism;

[0008] The pretreatment part is suitable for wetting the external fiber fabric in advance to change the characteristics of the external fiber fabric in a targeted manner;

[0009] The reflex mechanism is driven to push and hit the external fiber fabric multiple times, so as to make the structure of the external fiber fabric tend to be loose;

[0010] Driving the pushing and stirring mechanism can cause the treatment liquid in the soaking tank to continuously shake, so as to enhance the blending of the treatment liquid and the external fiber fabric;

[0011] The weighted portion is suitable for counterweighting the tail of the external fiber fabric to apply a downward force to the tail.

[0012] Further, the pretreatment part includes a rectangular channel, a vertical plate connected to the top of the rectangular channel, and the vertical plate is arranged along the transverse direction of the rectangular channel, an inner circular frame installed on the rectangular channel, a tank body installed on the inner circular frame, a discharge pipe connected to the tank body, a drainage channel opened on the vertical plate, and the drainage channel passes through the upper top wall of the rectangular channel and communicates with the rectangular channel, and a water filter plate installed on the rectangular channel;

[0013] An electric-controlled valve is installed on the discharge pipe, and the discharge pipe is connected to the drainage channel;

[0014] The water filter plate extends forward from the back of the drainage channel and is flush with the side of the rectangular channel.

[0015] The two lateral plates are connected to each other with a U-shaped groove, and the two lateral plates are connected to each other with a U-shaped groove.

[0016] The width of the soaking pool protruding from the two side panels becomes larger.

[0017] Further, the weighting part includes an extension table connected to the rectangular channel on a side away from the U-shaped connecting bridge plate, two rectangular grooves provided on the extension table, two first magnetic blocks respectively placed in the two rectangular grooves, and the bottom surfaces of the two first magnetic blocks are flush with the inner bottom surface of the rectangular channel, two fixed arm plates respectively installed on both sides of the extension table, two rectangular frames respectively connected to the end surfaces of the two fixed arm plates, two first cylinders respectively arranged on the two fixed arm plates, two bottom plates respectively connected to the output ends of the two first cylinders, and the two bottom plates are respectively attached to the bottom surfaces of the two rectangular frames, two second magnetic blocks respectively attached to the two rectangular frames, a first retaining plate centrally installed on the bottom surface of the tail of the extension table, and a sensor obliquely installed on the first retaining plate;

[0018] The sensor is electrically connected to the two first cylinders;

[0019] The emission route of the sensor intersects with the rear extension track of the epitaxial stage;

[0020] The two second magnetic blocks are respectively located directly above the two first magnetic blocks.

[0021] Further, the pushing and stirring mechanism includes a second fixing plate, two oblique holes arranged on the soaking tank and passing through side by side, two second cylinders obliquely installed on the second fixing plate, two rods respectively connected to the output shafts of the two second cylinders, and the two rods respectively extend into the soaking tank through the two oblique holes, two sleeves installed on the outer wall of the soaking tank and respectively located at the two oblique holes, two rubber sleeves respectively connected to the two sleeves and respectively sealed and sleeved on the two rods, and two expansion members respectively connected to the two rods in one piece;

[0022] The two surface expansion members are located in the soaking pool.

[0023] Furthermore, the reflex mechanism includes an outer frame connected to the arc plate, a sponge sheet fitted in the outer frame, a third fixing plate installed on the outer side wall of the soaking tank, a plurality of third cylinders installed side by side on the third fixing plate, and a plurality of lifting panels respectively connected to the output ends of the plurality of third cylinders;

[0024] A plurality of the top-lifting panels are disposed toward the sponge sheet and close to one end of the arc plate.

[0025] Furthermore, the drainage channel is in a state of gradually sloping downward from the side connected to the discharge pipe as a base point to the other side;

[0026] The drainage channel is double-layered, and the upper layer is wider than the lower layer.

[0027] Furthermore, the traction connector is radially connected to the back side of the strip at multiple points.

[0028] According to a second aspect of the present invention, a method for treating fiber fabric using the fiber fabric antibacterial and deodorizing treatment device is provided:

[0029] S1: Clamp one end of the fiber fabric to be treated with the lower clamp bar and the upper clamp bar, then energize the sensor so that the sensor can sense the presence of the fiber fabric, then start the electric winch to pull the fiber fabric to be treated forward, and at the same time open the electric control valve to allow the alkaline aqueous solution in the tank to flow downward onto the fiber fabric below, thereby completing the pretreatment of the fiber fabric;

[0030] S2: When the sensor loses the signal of the fiber fabric, the output shafts of the two first cylinders are controlled to retract quickly, causing the two second magnetic blocks to fall and engage with the two first magnetic blocks below, sandwiching the fiber fabric in the middle;

[0031] S3: Control the electric winch to continuously pull the fiber fabric forward until the strips are separated from the two side plates, so that the fiber fabric is completely immersed in the treatment liquid in the immersion tank, and then synchronously drive the two second cylinders to push the two expansion parts back and forth in the treatment liquid, so that the treatment liquid continues to shake;

[0032] S4: After the fiber fabric is fully soaked, the electric winch is started again to continuously pull the fiber fabric upward from the treatment liquid, and the fiber fabric is pulled onto the sponge sheet along the arc plate. At the same time, several third cylinders are started so that each part of the fiber fabric is fully pushed, beaten and kneaded by several lifting panels.

[0033] Compared with the prior art, the present invention has the following beneficial effects:

[0034] 1. The fiber fabric antibacterial and deodorizing treatment device can wet the fiber fabric with an alkaline aqueous solution before the fiber fabric is formally soaked through the pretreatment part, thereby effectively enhancing the hydrophilicity of the fiber before the formal treatment, so that the fiber fabric can be better combined with the antibacterial and deodorizing agent, thereby improving the treatment effect;

[0035] 2. Under the joint action of the power traction mechanism and the weighting part, the fiber fabric antibacterial and deodorizing treatment device can make the fiber fabric fully stretched obliquely in the soaking tank, effectively avoiding the stacking of the fabric, ensuring that all parts can be fully combined with the antibacterial and deodorizing agent, so as to prevent the uneven distribution of the antibacterial and deodorizing agent on the fabric after the treatment, and ensure the quality of the antibacterial and deodorizing treatment;

[0036] 3. The fiber fabric antibacterial and deodorizing treatment device can continuously shake the treatment liquid in the soaking tank through the pushing and stirring mechanism, so that the treatment liquid flows back and forth toward the fiber fabric, thereby prompting the treatment liquid to combine with the fiber fabric more actively, greatly improving the degree of fusion between the two, allowing the antibacterial and deodorizing agent to penetrate deeper into the fabric, thereby effectively improving the bonding strength between the two to improve the antibacterial and deodorizing treatment effect;

[0037] 4. The antibacterial and deodorizing treatment device for fiber fabrics can fully push and knead the fiber fabrics with appropriate force after the soaking treatment through the re-softening mechanism, so as to loosen the fibers and reduce the rigidity of the fiber surface, thereby ensuring that the fiber fabrics can restore their softness after being negatively affected by the antibacterial and deodorizing agent, thereby ensuring the softness and comfort of the fabrics;

[0038] 5. The fiber fabric antibacterial and deodorizing treatment device starts from multiple angles and uses multiple means to involve and actually improve the effects of multiple processing steps of fabric antibacterial and deodorizing treatment in more dimensions, thereby comprehensively improving the antibacterial and deodorizing effects of fiber fabrics and improving the quality and durability of subsequent products. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0040] Figure 1 A perspective view of the present invention is shown;

[0041] Figure 2 A first partial perspective view of the present invention is shown;

[0042] Figure 3 A partial stereoscopic view of the present invention at another angle is shown;

[0043] Figure 4 A partial stereoscopic view of the present invention at another angle is shown;

[0044] Figure 5 A partial bottom perspective view of the present invention is shown;

[0045] Figure 6 A partial stereoscopic view of the present invention at another angle is shown;

[0046] Figure 7 A second partial perspective view of the present invention is shown;

[0047] Figure 8 The present invention is shown Figure 2 A magnified image of point A;

[0048] Fig. 9 The present invention is shown Figure 3 Enlarged view of point B.

[0049] In the figures, the same reference numerals denote the same structural elements, wherein:

[0050] 1. Pretreatment unit; 11. Rectangular channel; 12. Vertical plate; 13. Inner round frame; 14. Tank; 15. Discharge pipe; 16. Drainage channel; 17. Filter plate; 2. Soaking tank; 3. Power traction mechanism; 31. U-shaped connecting bridge plate; 32. Side vertical plate; 33. Slide; 34. Strip plate; 35. Lower clamping strip; 36. Upper clamping strip; 37. Bolt; 38. Traction connector; 39. Casing; 391. Arc plate; 392. Electric winch; 393. Cable; 4. Reflex mechanism; 41 , outer frame; 42, sponge sheet; 43, third fixing plate; 44, third cylinder; 45, lifting panel; 5, pushing and stirring mechanism; 51, second fixing plate; 52, second cylinder; 53, rod; 54, sleeve; 55, rubber sleeve; 56, expansion member; 6, weighting part; 61, extension table; 62, rectangular groove; 63, first magnetic block; 64, fixed arm plate; 65, rectangular frame; 66, first cylinder; 67, bottom plate; 68, second magnetic block; 69, first fixing plate; 691, sensor. DETAILED DESCRIPTION

[0051] The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, which only illustrate the basic structure of the present invention in a schematic manner, and therefore only show the components related to the present invention.

[0052] like Figure 1-9 As shown, a fiber fabric antibacterial and deodorizing treatment device comprises: a pretreatment part 1 and a soaking tank 2 arranged side by side, a power traction mechanism 3 arranged on the pretreatment part 1 and the soaking tank 2, a re-softening mechanism 4 arranged on the side of the soaking tank 2 and on the power traction mechanism 3, a pushing and stirring mechanism 5 arranged obliquely and extending into the soaking tank 2, and a weighting part 6 connected to the tail of the pretreatment part 1, the soaking tank 2 is filled with a solution mixed with an antibacterial and deodorizing agent to form a treatment liquid for normal soaking treatment, wherein:

[0053] The power traction mechanism 3 is suitable for clamping the external fiber fabric and dragging it forward at a constant speed, so that the external fiber fabric can smoothly pass through the pretreatment part 1 and the soaking tank 2 in sequence to reach the re-softening mechanism 4;

[0054] The pretreatment part 1 is suitable for wetting the external fiber fabric in advance to change the characteristics of the external fiber fabric in a targeted manner;

[0055] The re-flexing mechanism 4 is driven to push and hit the external fiber fabric multiple times, so as to make the structure of the external fiber fabric tend to be loose;

[0056] Driving the pushing and stirring mechanism 5 can cause the treatment liquid in the soaking tank 2 to continuously shake, so as to enhance the blending of the treatment liquid and the external fiber fabric;

[0057] The weighted portion 6 is suitable for counterweighting the tail of the external fiber fabric to apply a downward force to its tail. The antibacterial and deodorizing treatment device for the fiber fabric can completely wet the fiber fabric with an alkaline aqueous solution before the formal immersion treatment of the fiber fabric through the pretreatment portion 1, thereby effectively enhancing the hydrophilicity of the fiber before the formal treatment, and then enabling the fiber fabric to better combine with the antibacterial and deodorizing agent to improve the treatment effect. Under the joint action of the power traction mechanism 3 and the weighted portion 6, the fiber fabric can be fully stretched obliquely in the immersion tank 2, effectively avoiding the stacking of the fabric, ensuring that all parts can be fully combined with the antibacterial and deodorizing agent, so as to prevent the antibacterial and deodorizing agent on the fabric after the treatment is completed. Uneven distribution ensures the quality of the antibacterial and deodorizing treatment. The treatment liquid in the immersion tank 2 can be continuously shaken by the pushing and stirring mechanism 5 to promote the treatment liquid It flows back and forth toward the fiber fabric, thereby prompting the treatment liquid to combine with the fiber fabric more actively, greatly improving the degree of fusion between the two, allowing the antibacterial and deodorizing agent to penetrate deeper into the fabric better, thereby effectively improving the bonding strength between the two to improve the antibacterial and deodorizing treatment effect. Through the softening mechanism 4, the fiber fabric can be fully pushed and kneaded with appropriate force after the fiber fabric has completed the immersion treatment, thereby causing the fibers to become loose and reducing the rigidity of the fiber surface, thereby ensuring that the fiber fabric can restore its softness after being negatively affected by the antibacterial and deodorizing agent, ensuring the softness and comfort of the fabric. The fiber fabric antibacterial and deodorizing treatment device starts from multiple angles and uses multiple means to involve and actually improve the effects of multiple treatment steps of the fabric antibacterial and deodorizing treatment in more dimensions, thereby comprehensively improving the antibacterial and deodorizing effect of the fiber fabric and improving the quality and durability of subsequent products.

[0058] Optionally, the pretreatment section 1 includes a rectangular channel 11, a vertical plate 12 connected to the top of the rectangular channel 11, and the vertical plate 12 is arranged along the transverse direction of the rectangular channel 11, an inner circular frame 13 installed on the rectangular channel 11, a tank body 14 installed on the inner circular frame 13, a discharge pipe 15 connected to the tank body 14, a drainage channel 16 opened on the vertical plate 12, and the drainage channel 16 passes through the upper top wall of the rectangular channel 11 and communicates with the rectangular channel 11, and a water filter plate 17 installed on the rectangular channel 11, and the tank body 14 is filled with an alkaline aqueous solution;

[0059] An electric control valve is installed on the discharge pipe 15, and the discharge pipe 15 is connected to the drainage channel 16;

[0060] The water filter plate 17 extends forward from the back of the drainage channel 16 and is flush with the side of the rectangular channel 11. When the power traction mechanism 3 starts to pull the fiber fabric to be treated forward, the electric control valve is opened to open the discharge pipe 15, so that the alkaline aqueous solution in the tank 14 is discharged into the rectangular channel 11 through the drainage channel 16, and then the fiber fabric passing through is wetted, so as to achieve the purpose of effectively enhancing the hydrophilicity of the fiber before the formal treatment, making the fiber surface structure loose, increasing the surface area and porosity of the fiber, providing more space and channels for the penetration and adsorption of the antibacterial deodorant, so that the fiber fabric can be better combined with the antibacterial deodorant, and effectively improving the treatment effect; during pretreatment, the pulling speed of the power traction mechanism 3 is controlled to make the fiber fabric pass slowly in the rectangular channel 11, so as to ensure that the fiber fabric can be fully drenched by the alkaline aqueous solution to ensure the pretreatment effect; a container for receiving liquid is placed under the water filter plate 17 to receive the alkaline aqueous solution drained from the water filter plate 17.

[0061] Optionally, the power traction mechanism 3 includes a U-shaped connecting bridge plate 31 integrally connected to the immersion pool 2, two side upright plates 32 installed on the top of the immersion pool 2, and one end of the U-shaped connecting bridge plate 31 is in contact with the side of the rectangular channel 11, and the other end is in contact with the side of the two side upright plates 32, two slide grooves 33 are respectively provided on the two inner side walls of the rectangular channel 11, and the two slide grooves 33 extend through the U-shaped connecting bridge plate 31 and the two side upright plates 32, a strip 34 slidably installed in the slide groove 33 and located at the tail end of the rectangular channel 11, a lower clamping strip 35 connected to the strip 34, an upper clamping strip 36 movably installed on the strip 34, a plurality of bolts 37 spirally installed on the upper clamping strip 36 at equal intervals, and a plurality of the bolts 37 spirally penetrate the lower clamping strip 35, a traction connecting piece 38 installed on the back of the strip 34, a threaded The sleeve 39 connected to the traction connection 38 is connected to the arc plate 391 on the top of the soaking tank 2, and the arc plate 391 is located on the opposite side of the U-shaped connecting bridge plate 31, an obliquely arranged electric winch 392, and a cable 393 with one end connected to the electric winch 392 and the other end connected to the sleeve 39 along the arc plate 391. When processing fiber fabrics, one end of the fabric is completely placed between the lower clamping strip 35 and the upper clamping strip 36, and then a number of bolts 37 are tightened to ensure that the fabric is firmly clamped to ensure that the fabric will not fall off during the subsequent processing. Then the electric winch 392 is started to start winding the cable 393, so that the strip 34 is pulled at a uniform speed along the two slide grooves 33 through the traction connection 38, ensuring that the fabric can be pulled away from the rectangular channel 11, pulled into the soaking tank 2, and pulled up along the arc plate 391 in turn, so as to support the smooth progress of each link of the antibacterial and deodorization treatment;

[0062] The width of the portion of the soaking pool 2 protruding from the two side panels 32 is increased to ensure that the strip board 34 can be separated from the two side panels 32 and fall into the soaking pool 2.

[0063] Optionally, the weighting part 6 includes an extension platform 61 connected to the rectangular channel 11 on a side away from the U-shaped connecting bridge plate 31, two rectangular grooves 62 provided on the extension platform 61, two first magnetic blocks 63 respectively placed in the two rectangular grooves 62, and the bottom surfaces of the two first magnetic blocks 63 are flush with the inner bottom surface of the rectangular channel 11, two fixed arm plates 64 respectively installed on both sides of the extension platform 61, two rectangular frames 65 respectively connected to the end surfaces of the two fixed arm plates 64, two first cylinders 66 respectively arranged on the two fixed arm plates 64, two bottom plates 67 respectively connected to the output ends of the two first cylinders 66, and the two bottom plates 67 are respectively attached to the bottom surfaces of the two rectangular frames 65, two second magnetic blocks 68 respectively attached to the two rectangular frames 65, a first retaining plate 69 centrally installed on the bottom surface of the tail of the extension platform 61, and a sensor 691 obliquely installed on the first retaining plate 69;

[0064] The sensor 691 is electrically connected to the two first cylinders 66;

[0065] The emission path of the sensor 691 intersects with the rear extension track of the epitaxial stage 61;

[0066] The two second magnetic blocks 68 are respectively located directly above the two first magnetic blocks 63. When the fabric is continuously pulled, the fabric is gradually dragged on the extension table 61. When the tail of the fabric is about to enter the rectangular channel 11, the sensor 691 loses the signal of the fabric, thereby controlling the output ends of the two first cylinders 66 to retract quickly, and the two bottom plates 67 are pulled back to make way for the openings of the two rectangular frames 65. Then, the two second magnetic blocks 68 fall down and respectively engage with the first magnetic blocks 63 below, thereby sandwiching the fabric in the middle to provide counterweight for the tail of the fabric. When the fabric is dragged completely away from the U-shaped connecting bridge plate 31 and enters the immersion tank 2, between the two The weight of the second magnetic block 68 and the two first magnetic blocks 63 causes the tail of the fabric to fall rapidly, and the strip board 34 also naturally droops under the action of gravity after being separated from the two side plates 32. At this time, the height of the strip board 34 is adjusted by the electric winch 392, so that the fabric is completely immersed in the treatment liquid in the soaking tank 2, forming a state in which the two ends of the fabric are located at a pair of diagonal corners in the soaking tank 2, ensuring that the fiber fabric is fully stretched obliquely in the soaking tank 2, effectively avoiding the stacking of the fabric, and ensuring that each part can be fully combined with the antibacterial and deodorizing agent to prevent uneven distribution of the antibacterial and deodorizing agent on the fabric after the treatment, thereby ensuring the quality of the antibacterial and deodorizing treatment.

[0067] Optionally, the pushing and stirring mechanism 5 includes a second fixing plate 51, two oblique holes arranged on the soaking tank 2 and passing through side by side, two second cylinders 52 obliquely installed on the second fixing plate 51, two rods 53 respectively connected to the output shafts of the two second cylinders 52, and the two rods 53 respectively extend into the soaking tank 2 through the two oblique holes, two sleeves 54 installed on the outer wall of the soaking tank 2 and respectively located at the two oblique holes, two rubber sleeves 55 respectively connected to the two sleeves 54 and respectively sealed and sleeved on the two rods 53, and two expansion members 56 respectively connected to the two rods 53, and the rubber sleeves 55 are made of soft material and can be stretched arbitrarily;

[0068] The two expanding members 56 are located in the soaking tank 2. When the fiber fabric is fully stretched out obliquely in the soaking tank 2, the two expanding members 56 are facing the fiber fabric. At this time, the two second cylinders 52 are synchronously driven to push the two expanding members 56 forward, thereby pushing the treatment liquid in front of the two expanding members 56 toward the fiber fabric, so that the treatment liquid continues to shake, prompting the treatment liquid to surge back and forth toward the fiber fabric, and the surging treatment liquid acts on the fiber fabric with a certain impact force, so that the antibacterial and deodorant in the treatment liquid can be more actively combined with the fiber fabric, so that the antibacterial and deodorant can penetrate into the fiber fabric, greatly improving the degree of fusion between the two, and allowing the antibacterial and deodorant to penetrate deeper into the fabric, thereby effectively improving the antibacterial and deodorant treatment effect by increasing the bonding strength between the two; at the same time, the continuous surge of the treatment liquid can effectively prevent the antibacterial and deodorant in the treatment liquid from precipitating, resulting in a decrease in the antibacterial and deodorant effect of the treatment liquid.

[0069] Optionally, the reflex mechanism 4 includes an outer frame 41 connected to the arc plate 391, a sponge sheet 42 fitted in the outer frame 41, a third fixing plate 43 installed on the outer side wall of the soaking tank 2, a plurality of third cylinders 44 installed side by side on the third fixing plate 43, and a plurality of lifting panels 45 respectively connected to the output ends of the plurality of third cylinders 44;

[0070] The plurality of lifting panels 45 are directed toward one end of the sponge sheet 42 close to the arc plate 391. After the fiber fabric is fully soaked, the electric winch 392 is started again to pull the strip plate 34 upward, so that the fiber fabric begins to move upward from the treatment liquid. After the strip plate 34 is continuously pulled along the arc plate 391 and the sponge sheet 42 so that the fiber fabric on the sponge sheet 42 reaches a width similar to that of the lifting panel 45, the electric winch 392 is stopped to keep the fiber fabric in the current position, and then the plurality of third cylinders 44 are synchronously driven to continuously lift and lower the fiber fabric using the plurality of lifting panels 45, and the driving mode is switched to drive the two spaced third cylinders 44 or to drive the plurality of third cylinders 44 at different driving distances. Working, the fiber fabric is fully pushed and kneaded with appropriate force, so that the fibers become loose, the rigidity of the fiber surface is reduced, and then the fiber fabric can recover its softness after being negatively affected by the antibacterial deodorant, ensuring the softness and comfort of the fabric, and then the electric winch 392 is started again to drag the fiber fabric until the whole fiber fabric is processed; the sponge sheet 42 does not hinder the pushing and kneading of the fiber fabric by the several lifting panels 45, while avoiding the direct contact of the several hard lifting panels 45 with the fiber fabric, to prevent the fiber fabric from being damaged. At the same time, the fiber fabric can absorb moisture from the fiber fabric that has just been soaked to a certain extent, thereby facilitating the subsequent drying process.

[0071] Optionally, the drainage channel 16 is in a state of gradually sloping downward from the side connected to the discharge pipe 15 to the other side as a base point;

[0072] The drainage channel 16 is double-layered, and the upper layer is wider than the lower layer. That is, after the discharge pipe 15 discharges the alkaline aqueous solution into the drainage channel 16, due to the different widths of the drainage channels 16, the alkaline aqueous solution cannot all flow through the drainage channel 16 directly below the discharge pipe 15 at one time. The alkaline aqueous solution will flow along the drainage channel 16, thereby ensuring that the alkaline aqueous solution flows down the entire drainage channel 16, and then ensuring that the pouring width can cover the fiber fabric to ensure the pretreatment effect and prevent some parts from being poured by the alkaline aqueous solution.

[0073] Optionally, the traction connector 38 is radially connected to the back side of the strip 34 at multiple points to ensure uniform force on the strip 34 to prevent the strip 34 from tilting when the fiber fabric is pulled upward from the soaking tank 2 and affecting the normal processing process.

[0074] In a second embodiment of the present invention, a method for treating fiber fabric using the fiber fabric antibacterial and deodorizing treatment device is provided:

[0075] S1: Clamp one end of the fiber fabric to be treated with the lower clamping strip 35 and the upper clamping strip 36, then energize the sensor 691 so that the sensor 691 can sense the presence of the fiber fabric, then start the electric winch 392 to pull the fiber fabric to be treated forward, and at the same time open the electric control valve to allow the alkaline aqueous solution in the tank 14 to flow downward onto the fiber fabric below, thereby completing the pretreatment of the fiber fabric;

[0076] S2: When the sensor 691 loses the signal of the fiber fabric, the output shafts of the two first cylinders 66 are controlled to retract rapidly, so that the two second magnetic blocks 68 fall down and are attracted to the two first magnetic blocks 63 below, sandwiching the fiber fabric in the middle;

[0077] S3: Control the electric winch 392 to continuously pull the fiber fabric forward until the strip 34 is separated from the two side plates 32, so that the fiber fabric is completely immersed in the treatment liquid in the soaking tank 2, and then synchronously drive the two second cylinders 52 to push the two expansion members 56 back and forth in the treatment liquid, so that the treatment liquid continues to shake;

[0078] S4: After the fiber fabric is fully soaked, the electric winch 392 is started again to continuously pull the fiber fabric upward from the treatment liquid, and pull the fiber fabric onto the sponge sheet 42 along the arc plate 391, and at the same time, a plurality of third cylinders 44 are started so that each part of the fiber fabric is fully pushed, beaten and kneaded by a plurality of lifting panels 45.

[0079] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A device for treating fiber fabrics for antibacterial and deodorizing, characterized in that: include: A pretreatment section (1) and a soaking tank (2) are arranged side by side, a power traction mechanism (3) is arranged on the pretreatment section (1) and the soaking tank (2), a reflex mechanism (4) is arranged on the side of the soaking tank (2) and on the power traction mechanism (3), a pushing and stirring mechanism (5) is arranged obliquely and extends into the soaking tank (2), and a weighting section (6) is connected to the rear of the pretreatment section (1), wherein: The power traction mechanism (3) is suitable for clamping the external fiber fabric and dragging it forward at a constant speed, so that the external fiber fabric can smoothly pass through the pretreatment part (1) and the soaking tank (2) in sequence and arrive at the softening mechanism (4); The pretreatment part (1) is suitable for wetting the external fiber fabric in advance to change the characteristics of the external fiber fabric in a targeted manner; The re-flexing mechanism (4) is driven to push and hit the external fiber fabric multiple times, so as to make the structure of the external fiber fabric tend to be loose; Driving the pushing and stirring mechanism (5) can cause the treatment liquid in the soaking tank (2) to continuously shake, so as to enhance the blending of the treatment liquid and the external fiber fabric; The weighted portion (6) is suitable for counterweighting the tail of the external fiber fabric so as to exert a downward force on the tail.

2. The antibacterial and deodorizing treatment device for fiber fabrics according to claim 1, characterized in that: The pretreatment section (1) comprises a rectangular channel (11), a vertical plate (12) connected to the top of the rectangular channel (11), the vertical plate (12) being arranged in the transverse direction of the rectangular channel (11), an inner circular frame (13) mounted on the rectangular channel (11), a tank body (14) mounted on the inner circular frame (13), a discharge pipe (15) connected to the tank body (14), a drainage channel (16) provided on the vertical plate (12), the drainage channel (16) passing through the upper top wall of the rectangular channel (11) and communicating with the rectangular channel (11), and a water filter plate (17) mounted on the rectangular channel (11); An electric control valve is installed on the discharge pipe (15), and the discharge pipe (15) is connected to the drainage channel (16); The water filter plate (17) extends forward from the rear of the drainage channel (16) and is flush with the side surface of the rectangular channel (11).

3. The antibacterial and deodorizing treatment device for fiber fabrics according to claim 2, characterized in that: The power traction mechanism (3) comprises a U-shaped connecting bridge plate (31) integrally connected to the soaking pool (2), two side upright plates (32) installed on the top of the soaking pool (2), and one end of the U-shaped connecting bridge plate (31) is in contact with the side surface of the rectangular channel (11), and the other end is in contact with the side surfaces of the two side upright plates (32), two sliding grooves (33) are respectively provided on the two inner side walls of the rectangular channel (11), and the two sliding grooves (33) extend through the U-shaped connecting bridge plate (31) and the two side upright plates (32), a strip plate (34) slidably installed in the sliding groove (33) and located at the tail of the rectangular channel (11), and a lower clamping strip (35) connected to the strip plate (34) , an upper clamping strip (36) movably mounted on the strip (34), a plurality of bolts (37) spirally mounted on the upper clamping strip (36) at equal intervals, and a plurality of the bolts (37) spirally penetrate the lower clamping strip (35), a traction connecting piece (38) mounted on the back of the strip (34), a sleeve (39) threadedly connected to the traction connecting piece (38), an arc plate (391) connected to the top of the soaking tank (2), and the arc plate (391) is located on the opposite side of the U-shaped connecting bridge plate (31), an obliquely arranged electric winch (392), and a cable (393) with one end connected to the electric winch (392) and the other end connected to the sleeve (39) along the arc plate (391); The width of the part of the soaking pool (2) protruding from the two side panels (32) becomes larger.

4. The device for treating fiber fabrics for antibacterial and deodorizing as claimed in claim 3, characterized in that: The weighting part (6) comprises an extension platform (61) connected to the rectangular channel (11) at a side away from the U-shaped connecting bridge plate (31), two rectangular grooves (62) provided on the extension platform (61), two first magnetic blocks (63) respectively placed in the two rectangular grooves (62), and the bottom surfaces of the two first magnetic blocks (63) are flush with the inner bottom surface of the rectangular channel (11), two fixed point arm plates (64) respectively installed on both sides of the extension platform (61), and two rectangular frames respectively connected to the end surfaces of the two fixed point arm plates (64). (65), two first cylinders (66) respectively arranged on the two fixed arm plates (64), two bottom plates (67) respectively connected to the output ends of the two first cylinders (66), and the two bottom plates (67) are respectively attached to the bottom surfaces of the two rectangular frames (65), respectively attached to the two second magnetic blocks (68) placed in the two rectangular frames (65), a first fixing plate (69) centrally installed on the bottom surface of the tail of the epitaxial platform (61), and a sensor (691) installed obliquely upward on the first fixing plate (69); The sensor (691) is electrically connected to the two first cylinders (66); The emission path of the sensor (691) intersects with the rear extension track of the epitaxial platform (61); The two second magnetic blocks (68) are respectively located directly above the two first magnetic blocks (63).

5. The device for treating fiber fabrics for antibacterial and deodorizing as claimed in claim 4, characterized in that: The pushing and stirring mechanism (5) comprises a second fixing plate (51), two oblique holes extending side by side through the soaking tank (2), two second cylinders (52) obliquely mounted on the second fixing plate (51), two rods (53) respectively connected to the output shafts of the two second cylinders (52), and the two rods (53) respectively extend into the soaking tank (2) through the two oblique holes, two sleeves (54) mounted on the outer wall of the soaking tank (2) and respectively located at the two oblique holes, two rubber sleeves (55) respectively connected to the two sleeves (54) and respectively sealed and sleeved on the two rods (53), and two expansion members (56) respectively connected to the two rods (53); The two surface expansion members (56) are located in the soaking pool (2).

6. The device for antibacterial and deodorizing fiber fabrics according to claim 5, characterized in that: The reflex mechanism (4) comprises an outer frame (41) connected to the arc plate (391), a sponge sheet (42) fitted in the outer frame (41), a third fixing plate (43) installed on the outer side wall of the soaking tank (2), a plurality of third cylinders (44) installed side by side on the third fixing plate (43), and a plurality of lifting panels (45) respectively connected to the output ends of the plurality of third cylinders (44); A plurality of the lifting panels (45) are disposed toward the sponge sheet (42) and close to one end of the arc plate (391).

7. The device for treating fiber fabrics for antibacterial and deodorizing as claimed in claim 6, characterized in that: The drainage channel (16) is in a state of gradually sloping downward from the side connected to the discharge pipe (15) as a base point toward the other side; The drainage channel (16) is double-layered, and the upper layer is wider than the lower layer.

8. The device for treating fiber fabrics for antibacterial and deodorizing as claimed in claim 7, characterized in that: The traction connection piece (38) is radially connected to the back side of the strip board (34) at multiple points.

9. The device for treating fiber fabrics for antibacterial and deodorizing according to any one of claims 1 to 8, wherein the treating method is: S1: clamp one end of the fiber fabric to be treated using a lower clamping strip (35) and an upper clamping strip (36), then energize the sensor (691) so that the sensor (691) can sense the presence of the fiber fabric, then start the electric winch (392) to pull the fiber fabric to be treated forward, and at the same time open the electric control valve to allow the alkaline aqueous solution in the tank (14) to flow downward onto the fiber fabric below, thereby completing the pretreatment of the fiber fabric; S2: When the sensor (691) loses the signal of the fiber fabric, the output shafts of the two first cylinders (66) are controlled to retract rapidly, so that the two second magnetic blocks (68) fall down and are attracted to the two first magnetic blocks (63) below, thereby sandwiching the fiber fabric in the middle; S3: Controlling the electric winch (392) to continuously pull the fiber fabric forward until the strip plate (34) is separated from the two side plates (32), so that the fiber fabric is completely immersed in the treatment liquid in the soaking tank (2), and then synchronously driving the two second cylinders (52) to push the two expansion members (56) back and forth in the treatment liquid, so that the treatment liquid continues to shake; S4: After the fiber fabric has been fully soaked, the electric winch (392) is started again to continuously pull the fiber fabric upward from the treatment liquid, and the fiber fabric is pulled onto the sponge sheet (42) along the arc plate (391). At the same time, a plurality of third cylinders (44) are started so that each part of the fiber fabric is fully pushed, beaten and kneaded by a plurality of lifting panels (45).

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