An inclined angle anti-lodging three-dimensional fabric, a preparation method thereof and application thereof in a cleaning appliance
By designing an angled anti-collapse three-dimensional fabric, and using inclined fibers interwoven with the base and staggered winding, the problem of fiber direction change during the washing process of the three-dimensional fabric is solved, which improves the cleaning effect and anti-tangling ability, and reduces the energy consumption of cleaning appliances and the risk of scratching items.
Patent Information
- Application Number
- CN202410179671.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-02-18
- Publication Date
- 2026-02-13
- Estimated Expiration
- 2044-02-18
AI Technical Summary
The three-dimensional fabrics used in existing cleaning appliances' floor brushes or roller brushes are prone to changing fiber orientation during the cleaning process, resulting in reduced cleaning ability. They are also prone to hair tangling and difficult to clean, while stiff bristle brushes can easily scratch the floor.
The fabric employs a 3D anti-collapse structure with an oblique angle. By designing the inclined head end fibers to interweave with the fabric base, and using polyester filament, nylon filament, and hot melt yarn as raw materials, combined with a staggered winding method, the fibers are ensured to be tilted and fixed, avoiding changes in the nap direction after washing and reducing the probability of entanglement.
It improves cleaning effectiveness, reduces the power consumption of cleaning appliances, reduces the entanglement of impurities, avoids scratching cleaning items, and improves cleaning efficiency.
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Figure CN117966336B_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of cleaning electrical appliances, in particular to a slant angle anti-lodging three-dimensional fabric, a preparation method thereof and application thereof in cleaning electrical appliances. BACKGROUND
[0002] The cleaning electrical appliances such as vacuum cleaners and floor washing machines are internally provided with a floor brush or a rolling brush to suck dust, stains and particulate matters, capture hairs and remove mites. However, the three-dimensional fabric used in the floor brush or the rolling brush of the cleaning electrical appliances on the market is usually made by cutting pile processing, the head-end fibers are perpendicular to the base, and the fibers are arranged in parallel, which is prone to change in hair direction during the cleaning process, thereby reducing the cleaning ability of the product, and the hard silk strip brush is prone to scratch the ground and the cleaning articles when cleaning wooden floors, carpets and bedclothes.
[0003] Therefore, there is an urgent need for a three-dimensional fabric which is not prone to change in hair direction after washing, has good cleaning effect and can prevent impurities from winding. SUMMARY
[0004] The present application aims to provide a slant angle anti-lodging three-dimensional fabric, a preparation method thereof and application thereof in cleaning electrical appliances. The slant angle anti-lodging three-dimensional fabric provided by the present application is not prone to change in hair direction after washing, has good cleaning effect and can prevent impurities from winding.
[0005] In order to achieve the above-mentioned application purposes, the present application provides the following technical solutions:
[0006] The present application provides a slant angle anti-lodging three-dimensional fabric, which comprises a fabric base and head-end fibers, and the head-end fibers are interwoven with the fabric base in an inclined manner.
[0007] The raw materials of the slant angle anti-lodging three-dimensional fabric comprise polyester filaments and nylon filaments, or polyester filaments, nylon filaments and hot melt filaments.
[0008] The preparation method of the slant angle anti-lodging three-dimensional fabric comprises the following steps in sequence: raw material processing, weaving and post-finishing.
[0009] The winding mode of the weaving is staggered winding.
[0010] Preferably, the head-end fibers comprise wool fibers or hard silk fibers.
[0011] Preferably, when the head-end fibers are wool fibers, the specifications of the nylon filaments comprise 850D / 120F, 1600D / 64F or 40 strands of 3 strands; and when the head-end fibers are hard silk fibers, the specifications of the nylon filaments comprise 12 silk strands of 5 strands, 20 silk strands of 3 strands or 15 silk strands of 4 strands.
[0012] Preferably, the inclination angle of the head-end fiber is 30±5°-75±5°.
[0013] Preferably, the net height of the head-end fiber is 5.5±0.2-11.5±0.5 mm.
[0014] Preferably, when the head-end fiber is a hard filament fiber, the loom used for weaving is a special-shaped loom; the included angle between the upper straight edge (a) and the lower straight edge (b) of the special-shaped loom is 100°-150°, and the included angle between the lower straight edge (b) and the extrusion edge (c) of the special-shaped loom is 120°-150°.
[0015] Preferably, when the head-end fiber is a pile fiber, the weaving further comprises calendering and steam setting in sequence.
[0016] Preferably, the temperature of the calendering is 80-200 ℃, and the time of the calendering is 5-40 min; the temperature of the steam setting is 80-100 ℃, and the time of the steam setting is 5-40 min.
[0017] The application provides a preparation method of the oblique-angle anti-lodging three-dimensional fabric, comprising the following steps in sequence: raw material treatment, weaving and post-finishing.
[0018] The winding mode of the weaving is staggered winding.
[0019] The application further provides an application of the oblique-angle anti-lodging three-dimensional fabric or the oblique-angle anti-lodging three-dimensional fabric prepared by the preparation method in a cleaning electric appliance.
[0020] The present application provides a bevel anti-lodging three-dimensional fabric, which comprises a fabric base and a head-end fiber interwoven with the fabric base in an oblique manner; the raw material of the bevel anti-lodging three-dimensional fabric comprises polyester filaments and nylon filaments, or polyester filaments, nylon filaments and hot melt filaments; the preparation method of the bevel anti-lodging three-dimensional fabric comprises the following steps in sequence: raw material treatment, weaving and post-finishing; the winding mode of the weaving is staggered winding. The present application avoids the problem of change of hair direction after washing by designing the head-end fiber in an oblique manner, while ensuring the dust removal efficiency, thereby reducing the power consumption of the cleaning appliance, and reducing the probability of winding impurities; the use of polyester filaments, nylon filaments and hot melt filaments as raw materials ensures the water absorption performance of the three-dimensional fabric, while reducing the scratching of the cleaning object by the three-dimensional fabric, and at the same time, the ability to sweep away impurities can be met, and the use of hot melt filaments can further ensure the oblique fixation of the root of the head-end fiber; the use of staggered winding winding mode causes the upper and lower layers of fabric to have different speeds when the warp is fed, causing the upper and lower layers to be staggered, thereby being obliquely fixed, and further avoiding the problem of change of hair direction after washing the fabric. The results of the examples show that the cleaning effect of the bevel anti-lodging three-dimensional fabric provided by the present application before washing is: 99.4% for the floor, 67% for the carpet and 102.7% for the gap, and the cleaning effect after washing is: 99.9% for the floor, 66% for the carpet and 105.1% for the gap, the hair direction before washing is: 60±5°, the hair direction after washing is: 60±5°, and the anti-winding effect is: 16s after hair winding.
[0021] The bevel anti-lodging three-dimensional fabric provided by the present application avoids the problem that the fabric hair direction is reversed or reversed after washing, thereby losing part of the cleaning function, and the hair direction does not change or the hair direction angle changes little after washing, unlike straight hair fabric, which can cause the direction of the hair to be chaotic after washing. Furthermore, if the fabric hair direction after washing is in a chaotic state, the rolling brush of the cleaning appliance is more likely to form a spiral cyclone under high-speed rotation, increasing the dust accumulation effect and reducing the cleaning effect. The bevel anti-lodging three-dimensional fabric provided by the present application solves this problem and improves the cleaning effect. Moreover, the bevel of the bevel anti-lodging three-dimensional fabric provided by the present application can prevent winding, reduce the contact area of the rolling brush and the cleaning object, and thereby reduce the resistance of the cleaning appliance when starting, thereby improving the cleaning efficiency of the cleaning appliance. BRIEF DESCRIPTION OF DRAWINGS
[0022] Figure 1 Structure diagram of the special-shaped steel reed used in the present application;
[0023] Figure 2 Drawing-in and reeding diagram of the bevel anti-lodging three-dimensional fabric in Examples 1-2 of the present application;
[0024] Figure 3 Machine card diagram of the bevel anti-lodging three-dimensional fabric in Examples 1-2 of the present application;
[0025] Figure 4 Draft plan for the bevel anti-lodging three-dimensional fabric in the embodiment 3 of the present application;
[0026] Figure 5 Looming plan for the bevel anti-lodging three-dimensional fabric in the embodiment 3 of the present application;
[0027] Figure 6 Physical picture of the pile bevel warp direction for the bevel anti-lodging three-dimensional fabric in the embodiments 1-2 of the present application;
[0028] Figure 7 Physical picture of the pile bevel weft direction for the bevel anti-lodging three-dimensional fabric in the embodiments 1-2 of the present application;
[0029] Figure 8 Physical picture of the hard silk bevel warp direction for the bevel anti-lodging three-dimensional fabric in the embodiment 3 of the present application;
[0030] Figure 9 Physical picture of the hard silk bevel weft direction for the bevel anti-lodging three-dimensional fabric in the embodiment 3 of the present application;
[0031] Figure 10 Side structure schematic diagram for the bevel anti-lodging three-dimensional fabric in the embodiment 3 of the present application. DETAILED DESCRIPTION
[0032] The present application provides a bevel anti-lodging three-dimensional fabric, which comprises a fabric base and a head-end fiber, and the head-end fiber is interwoven with the fabric base in an inclined manner.
[0033] The raw material of the bevel anti-lodging three-dimensional fabric comprises polyester filaments and chinlon filaments, or polyester filaments, chinlon filaments and hot melt filaments.
[0034] The preparation method of the bevel anti-lodging three-dimensional fabric comprises the following steps in sequence: raw material treatment, weaving and finishing.
[0035] The winding mode of the weaving is staggered winding.
[0036] In the present application, all the preparation raw materials / components are commercially available products well known to those skilled in the art, unless otherwise specified.
[0037] The present application provides a bevel anti-lodging three-dimensional fabric, which comprises a fabric base and a head-end fiber, and the head-end fiber is interwoven with the fabric base in an inclined manner. The present application avoids the problem of hair direction change after washing by designing the head-end fiber in an inclined manner, on the basis of taking into account the dust removal efficiency, thereby reducing the power consumption of the cleaning electric appliance, and reducing the probability of winding impurities.
[0038] In the present application, the head-end fiber preferably comprises a wool fiber or a hard filament fiber, and more preferably a wool fiber.
[0039] In the present application, the raw material of the oblique angle anti-lodging three-dimensional fabric comprises polyester filaments and nylon filaments, or polyester filaments, nylon filaments and hot melt filaments; and more preferably polyester filaments, nylon filaments and hot melt filaments. By using polyester filaments and nylon filaments, or polyester filaments, nylon filaments and hot melt filaments as raw materials, the present application ensures the water absorption performance of the fabric, reduces the scratching of the fabric on clean articles, and meets the ability of scraping impurities, and the use of hot melt filaments can further ensure the inclination of the root of the head-end fiber.
[0040] In the present application, the specification of the polyester filaments is preferably one or several of 300D and 30 strands of 3 strands.
[0041] In the present application, the specification of the hot melt filaments is preferably 100D or 150D.
[0042] In the present application, when the head-end fiber is a wool fiber, the specification of the nylon filaments preferably comprises 850D / 120F, 1600D / 64F or 40 strands of 3 strands, and more preferably 850D / 120F or 1600D / 64F; and when the head-end fiber is a hard filament fiber, the specification of the nylon filaments preferably comprises 12 filaments of 5 strands, 20 filaments of 3 strands or 15 filaments of 4 strands, and more preferably 20 filaments of 3 strands or 15 filaments of 4 strands.
[0043] In the present application, the inclination angle of the head-end fiber is preferably 30±5°-75±5°, and more preferably 40±5°-60±5°.
[0044] In the present application, the net height of the head-end fiber is preferably 5.5±0.2-11.5±0.5mm. The present application preferably controls the net height of the head-end fiber within the above range, which is beneficial to prevent the three-dimensional fabric from winding hair.
[0045] In the present application, the preparation method of the oblique angle anti-lodging three-dimensional fabric comprises the following steps in sequence: raw material treatment, weaving and finishing.
[0046] In the present application, when the head-end fiber is a wool fiber, the reed used for weaving is preferably a conventional reed.
[0047] In the present application, when the head-end fiber is hard wire fiber, the reed used for weaving is preferably profiled reed. In the present application, the included angle between the upper straight edge (a) and the lower straight edge (b) of the profiled reed is preferably 100°-150°, more preferably 105°-145°; the included angle between the lower straight edge (b) and the extrusion edge (c) of the profiled reed is preferably 120°-150°, more preferably 125°-145°. The present application preferably uses the profiled reed with the included angles between the upper straight edge (a) and the lower straight edge (b) and between the lower straight edge (b) and the extrusion edge (c) to increase the beating-up projection, so that the beating-up of the upper and lower layers is staggered and not on the same vertical line, thereby tilting and reinforcing the yarn root of the three-dimensional fabric, ensuring that the fiber is tilted from the root and not only the head-end part is tilted, and the tilting state can be more persistent and stable. In the present application, the included angle between the edges of the profiled reed is adjusted according to the actual angle of the hard wire fiber.
[0048] The structure of the profiled reed used in the present application is preferably as shown in Figure 1 Compared with the conventional reed, the profiled reed used in the present application increases the included angles α1 between the upper straight edge (a) and the lower straight edge (b) and α2 between the lower straight edge (b) and the extrusion edge (c). The present application increases the beating-up projection in the weaving process by increasing the included angles α1 and α2, so that the beating-up of the upper and lower layers is staggered and not on the same vertical line, thereby tilting and reinforcing the yarn root of the three-dimensional fabric, ensuring that the fiber is tilted from the root and not only the head-end part is tilted, and the tilting state can be more persistent and stable, and finally obtaining the inclined anti-lodging three-dimensional fabric.
[0049] In the present application, the winding method of weaving is staggered winding. The present application uses the staggered winding method to make the upper and lower layers of fabric have different speeds of warp feeding, causing the upper and lower layers to be staggered, thereby being fixed in an inclined manner, and further avoiding the problem of change of hair direction after washing the fabric.
[0050] In the present application, when the head-end fiber is fluff fiber, the weaving preferably further includes calendering and steam setting in sequence. The present application uses calendering and steam setting to reinforce the head-end fiber in a deep level, so that the tilting state of the head-end fiber can be maintained for a more persistent time, avoiding the change of hair direction during washing.
[0051] In the present application, the temperature of calendering is preferably 80-200℃, more preferably 80-150℃; the time of calendering is preferably 5-40min, more preferably 5-20min.
[0052] In the present application, the temperature of the steam setting is preferably 80-100 DEG C; the time of the steam setting is preferably 5-40 min, more preferably 5-20 min.
[0053] The present application avoids the problem of the hair direction change after washing by designing the head-end fiber in an inclined shape, reduces the power consumption of the cleaning appliance, and reduces the probability of winding impurities; the use of polyester filaments, nylon filaments and hot melt filaments as raw materials ensures the water absorption performance of the fabric and reduces the scratch of the cleaning article, and the use of hot melt filaments can further ensure the inclined fixation of the root of the head-end fiber; the use of the staggered winding mode causes the upper and lower layers of the fabric to have different speeds, causes the upper and lower layers to be staggered, and thus the fabric is fixed in an inclined manner, further avoiding the problem of the hair direction change after washing.
[0054] The present application provides a preparation method of the inclined anti-lodging three-dimensional fabric, which comprises the following steps in sequence: raw material treatment, weaving and finishing.
[0055] The winding mode of the weaving is staggered winding.
[0056] In the present application, when the head-end fiber is a pile fiber, the raw material treatment is preferably that the nylon filaments are twisted and high-temperature set in sequence.
[0057] In the present application, the twist of the twisting is preferably 10-100 twists / m, more preferably 30-60 twists / m; and the equipment for the twisting is preferably a twisting machine.
[0058] In the present application, when the head-end fiber is a hard filament fiber, the raw material treatment is preferably that the nylon filaments are plied.
[0059] In the present application, the weaving is preferably that the polyester filaments are used as the upper and lower warp yarns, the nylon filaments are used as the pile warp yarns, and the polyester filaments or the polyester filaments and hot melt filaments are used as the upper, lower and pile weft yarns, and then the fabric is layered.
[0060] In the present application, when the polyester filaments and hot melt filaments are used as the upper, lower and pile weft yarns, the ratio of the amount of the polyester filaments to that of the hot melt filaments is preferably 65-75%:25-35%.
[0061] In the present application, the weft density of the upper and lower layers is independently preferably 7-18 needles / cm, more preferably 10-15 needles / cm.
[0062] In the present application, the number of yarns used in weaving the disc head is preferably 110-300, more preferably 200-300. The present application does not have special limitation on the density of the warp threads of the pile warp, which can be adjusted according to the requirements.
[0063] In the present application, the equipment used in weaving is preferably a multi-arm weaving machine.
[0064] In the present application, the layering method is preferably cutting; the equipment used in cutting is preferably a blade; the yarn used in cutting is preferably the pile warp thread. In the present application, the timing of layering is preferably before the fabric is rolled up or comes out of the head.
[0065] In the present application, when the raw material of the bevel anti-lodging three-dimensional fabric comprises hot melt yarn, the equipment used in weaving preferably further comprises a hot plate; the temperature of the hot plate is preferably 70-260℃, more preferably 100-190℃. The present application preferably uses a hot plate when preparing the bevel anti-lodging three-dimensional fabric comprising hot melt yarn, so that the hot melt yarn is melted, further ensuring the inclination of the root of the head-end fiber.
[0066] In the present application, the number of weft needles used in weaving is preferably 2; the closing method of the weaving is preferably a latch needle closing.
[0067] The present application does not have special limitation on the weave structure of the bevel anti-lodging three-dimensional fabric, which can form the head-end fiber in an inclined manner.
[0068] In the present application, when the head-end fiber is a pile fiber, the reed used in weaving is preferably a conventional reed.
[0069] In the present application, when the head-end fiber is a hard yarn fiber, the reed used in weaving is preferably a special-shaped reed. In the present application, the included angle between the upper right-angle edge (a) of the special-shaped reed and the lower right-angle edge (b) of the special-shaped reed is preferably 100°-150°, more preferably 105°-145°; the included angle between the lower right-angle edge (b) of the special-shaped reed and the extrusion edge (c) of the special-shaped reed is preferably 120°-150°, more preferably 125°-145°. The present application preferably uses the special-shaped reed with the upper right-angle edge (a) and the lower right-angle edge (b) and the lower right-angle edge (b) and the extrusion edge (c) at a certain angle, increases the beating-up convex point, makes the upper and lower layers beat up staggered, not on the same vertical line, thereby inclining and reinforcing the root of the yarn of the three-dimensional fabric, ensures that the fiber is inclined from the root, not only the head-end part, and can make the inclined state more persistent and stable. In the present application, the included angle between the edges of the special-shaped reed is adjusted according to the actual angle of the hard yarn fiber.
[0070] The structure of the special-shaped reed used in the application is preferably as shown in Figure 1 Compared with the conventional reed, the special-shaped reed used in the application increases the included angle α1 between the upper straight edge (a) of the special-shaped reed and the lower straight edge (b) of the special-shaped reed and the included angle α2 between the lower straight edge (b) of the special-shaped reed and the extrusion edge (c) of the special-shaped reed. By increasing the included angles α1 and α2, the application further increases the beating protrusions in the weaving process, so that the upper and lower layers of beating are staggered and not on the same vertical line, thereby tilting and reinforcing the yarn root of the three-dimensional fabric, ensuring that the fiber is tilted from the root rather than only the head end, and enabling the tilted state to be more persistent and stable, and finally obtaining the oblique angle anti-lodging three-dimensional fabric.
[0071] In the application, the winding mode of the weaving is staggered winding. By adopting the staggered winding mode, the application causes the upper and lower layers of fabric to have different speeds of warp feeding, thereby causing the upper and lower layers to be staggered and thereby being obliquely fixed, and further avoiding the problem of change in hair direction after washing the fabric.
[0072] In the application, when the head end fiber is a pile fiber, the weaving preferably further includes calendering and steam setting which are sequentially performed. By calendering and steam setting, the application deeply reinforces the head end fiber, so that the tilted state of the head end fiber can be maintained for a more persistent time, and the change in hair direction of the head end fiber in the washing process is avoided.
[0073] In the application, the temperature of the calendering is preferably 80-200°C, and more preferably 80-150°C; and the time of the calendering is preferably 5-40 min, and more preferably 5-20 min.
[0074] In the application, the temperature of the steam setting is preferably 80-100°C; and the time of the steam setting is preferably 5-40 min, and more preferably 5-20 min.
[0075] In the application, when the head end fiber is a pile fiber, the finishing preferably includes glue coating, height trimming and striping which are sequentially performed. The application does not have special limitations on the operation of the glue coating, height trimming and striping, and any technical solution of the glue coating, height trimming and striping known to those skilled in the art can be adopted.
[0076] In the application, the glue used in the glue coating is preferably water-based PU glue; the speed of the glue coating is preferably 5.5-6.5 m / min; the temperature of the glue coating is preferably 80-120°C; and the equipment of the glue coating is preferably a glue coating machine.
[0077] In the application, the height trimming is preferably machine trimming; and the equipment of the height trimming is preferably a hair cutting machine. The application trims the hair height of the oblique angle anti-lodging three-dimensional fabric by height trimming.
[0078] In the present application, the number of slitting is preferably 1-8, more preferably 1-4; the width of the slitted anti-lodging three-dimensional fabric is preferably 40-80 mm. In the present application, the slitting device is preferably a slitting machine. The present application divides the anti-lodging three-dimensional fabric into the required number of strips by slitting.
[0079] In the present application, when the head-end fiber is a hard filament fiber, the post-finishing preferably includes glue coating, slitting, carding and slitting in sequence. The present application does not have special limitations on the operation of glue coating, slitting, carding and slitting, and the technical solutions of glue coating, slitting, carding and slitting known to those skilled in the art can be used.
[0080] In the present application, the glue used for glue coating is preferably water-based PU glue; the speed of glue coating is preferably 5.5-6.5 m / min; the temperature of glue coating is preferably 80-120℃; and the glue coating device is preferably a glue coating machine.
[0081] In the present application, the number of slitting is preferably 1-8, more preferably 1-4; the width of the slitted anti-lodging three-dimensional fabric is preferably 5-80 mm. In the present application, the slitting device is preferably a slitting machine. The present application divides the anti-lodging three-dimensional fabric into the required number of strips by slitting.
[0082] In the present application, the carding device is preferably a carding machine. The present application makes the head-end fiber highly flat and the hair more upright by carding, while reducing the degree of fiber spread.
[0083] In the present application, the slitting device is preferably a slitting machine. The present application divides the anti-lodging three-dimensional fabric into the required length by slitting.
[0084] The preparation method of the anti-lodging three-dimensional fabric provided by the present application is simple to operate, which is conducive to obtaining an anti-lodging three-dimensional fabric with hair that is not easy to change after washing, good cleaning effect, good anti-winding effect, and can avoid damaging the cleaned articles.
[0085] The present application also provides the use of the anti-lodging three-dimensional fabric described in the above technical solution or the anti-lodging three-dimensional fabric prepared by the preparation method in a cleaning electric appliance.
[0086] In the present application, the cleaning electric appliance preferably includes a vacuum cleaner or a floor washing machine.
[0087] The technical solutions in the present application will be clearly and completely described below in combination with the embodiments in the present application. Apparently, the described embodiments are only some of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all the other embodiments obtained by those of ordinary skill in the art without creative effort should fall into the protective scope of the present application.
[0088] Embodiment 1
[0089] The oblique angle anti-lodging three-dimensional fabric is composed of a fabric base and pile fibers, the pile fibers are interwoven with the fabric base in an oblique manner; the net pile height of the pile fibers is 5.5±0.2mm, and the oblique angle is 60±5°;
[0090] The raw materials of the oblique angle anti-lodging three-dimensional fabric are polyester filaments and nylon filaments; the specification of the nylon filaments is 850D / 120F, and the specification of the polyester filaments is 30 strands of 3 strands and 300D;
[0091] The preparation method of the oblique angle anti-lodging three-dimensional fabric comprises the following steps:
[0092] 1) Raw material treatment: twist processing is performed on one 850D / 120F nylon filament through a twisting machine, the twist degree is 30 twists / m, and then 105℃ high-temperature setting is performed for 90min.
[0093] 2) Weaving: the 30 strands of 3 strands of polyester filaments are used as the upper and lower warp threads, one 850D / 120F nylon filament prepared in step 1) is used as the pile warp thread, and the 300D polyester filaments are used as the upper, lower and pile warp wefts for weaving on a multi-arm weaving machine, wherein the weft density is 16.8 needles / cm, and the number of yarns of the disc head is 184; the winding mode of the weaving is staggered winding; when the fabric is not wound, the pile warp thread is cut off by a blade to realize the separation of the upper and lower layers;
[0094] According to the threading-in and threading-out diagram in the present application, Figure 2 the first to fourth harness wires are used to thread in the polyester filaments, and the remaining harness wires are used to thread in the nylon filaments; Figure 2 In the threading-in and threading-out diagram in the present application, all the harness wires are 5-hole harness wires, and the holes are sequentially numbered as ① hole, ② hole, ③ hole, ④ hole and ⑤ hole from top to bottom of the harness frame; in the diagram, “△” represents the upper layer warp thread, which is threaded into the ① hole of the 5th to 8th harness frame; “×” represents the lower layer warp thread, which is threaded into the ⑤ hole of the 9th to 12th harness frame; “▼” represents the pile warp thread, which is threaded into the ③ hole of the 1st to 4th harness frame; P1 represents the ③ hole of the 1st harness wire, P2 represents the ③ hole of the 2nd harness wire, P3 represents the ③ hole of the 3rd harness wire, and P4 represents the ③ hole of the 4th harness wire; two openings are formed by adjusting the height of the heald frame, two weft needles are used for weft insertion, and the selvedge is closed by using a latch needle;
[0095] According to the threading-in and threading-out diagram in the present application, Figure 3The loom setting diagram is shown in the figure, in which "▲" represents the middle of the heald frame, which is the pile warp organization point; "□" represents the heald frame lowering, which is the weft organization point; and "×" represents the heald frame lifting, which is the warp organization point.
[0096] 3) Calendering: the calendering temperature is 80°C, and the calendering time is 5 min.
[0097] 4) Steam setting: the steam setting temperature is 80°C, and the steam setting time is 5 min.
[0098] 5) Gluing: the bottom of the three-dimensional fabric is glued with water-based PU glue, the gluing machine speed is 5.5 m / min, and the gluing temperature is 120°C.
[0099] 6) Height trimming: the three-dimensional fabric after gluing is trimmed in height by a shearing machine.
[0100] 7) Stripping: the trimmed three-dimensional fabric is divided into 1 strip with a width of 55 mm by a stripping machine.
[0101] Example 2
[0102] The oblique angle anti-lodging three-dimensional fabric is composed of a fabric base and pile fibers, the pile fibers are interwoven with the fabric base in an oblique manner; the net pile height of the pile fibers is 5.5±0.2 mm, and the oblique angle is 60±5°;
[0103] The raw materials of the oblique angle anti-lodging three-dimensional fabric are polyester filaments, nylon filaments and hot melt filaments; the specification of the nylon filaments is 1600D / 64F, the specification of the polyester filaments is 300D, and the specification of the hot melt filaments is 150D;
[0104] The preparation method of the oblique angle anti-lodging three-dimensional fabric comprises the following steps:
[0105] 1) Raw material treatment: one 1600D / 64F nylon filament is treated by a twisting machine for twisting, the twist is 30 twists / m, and then high-temperature setting is performed at 105°C for 90 min.
[0106] 2) Weaving: the polyester filaments are used as upper and lower warp threads, one 1600D / 64F nylon filament prepared in step 1) is used as pile warp thread, and the polyester filaments and hot melt filaments are used as upper, lower and pile warp and weft threads for weaving on a multi-arm weaving machine, wherein the ratio of the amount of the polyester filaments to the hot melt filaments is 75%:25%, the weft density is 13.5 needles / cm, the number of yarns of the disc head is 112, and the ironing plate temperature is 170°C; the winding mode of weaving is staggered winding; when the fabric is not wound, the pile warp thread is cut off with a blade to realize the separation of the upper and lower layers;
[0107] According to the loom setting diagram shown in the figure, the first to fourth healds are threaded with polyester filaments, and the remaining healds are threaded with nylon filaments. Figure 2 Figure 2 In the drawing of the draft of the heald and the reed, all healds are 5-hole healds, and from top to bottom of the heald frame, the holes are numbered in turn as: ① hole, ② hole, ③ hole, ④ hole, and ⑤ hole; in the drawing: "△" represents the upper layer of warp, which is threaded through the ① hole of the 5-8 frame; "×" represents the lower layer of warp, which is threaded through the ⑤ hole of the 9-12 frame; "▼" represents the pile yarn warp, which is threaded through the ③ hole of the 1-4 frame; P1 represents the ③ hole of the 1st frame heald, P2 represents the ③ hole of the 2nd frame heald, P3 represents the ③ hole of the 3rd frame heald, and P4 represents the ③ hole of the 4th frame heald; two openings are formed by adjusting the height of the heald frame, two weft needles are used for weft insertion, and the selvedge is collected by a latch needle.
[0108] According to Figure 3 The setting of the loom drawing, in the drawing: "▲" represents the middle of the heald frame, which is the pile warp organization point; "□" represents the heald frame lowering, which is the weft organization point; and "×" represents the heald frame lifting, which is the warp organization point.
[0109] 3) Calendering: the calendering temperature is 80℃, and the calendering time is 5min.
[0110] 4) Steam setting: the steam setting temperature is 80℃, and the steam setting time is 5min.
[0111] 5) Gluing: the bottom of the three-dimensional fabric is glued with water-based PU glue, the gluing machine speed is 5.5m / min, and the gluing temperature is 120℃.
[0112] 6) Height trimming: the three-dimensional fabric after gluing is trimmed in height by a shearing machine.
[0113] 7) Slitting: the trimmed three-dimensional fabric is divided into 1 strip with a width of 55mm by a slitting machine.
[0114] Example 3
[0115] The oblique angle anti-lodging three-dimensional fabric is composed of a fabric base and hard fiber, and the hard fiber is interwoven with the fabric base in an oblique manner; the net height of the hard fiber is 11.3±0.5mm, and the oblique angle is 60±5°.
[0116] The raw materials of the oblique angle anti-lodging three-dimensional fabric are polyester filaments, nylon filaments and hot melt filaments; the specification of the nylon filaments is 20 filaments 3 strands, the specification of the polyester filaments is 300D, and the specification of the hot melt filaments is 100D.
[0117] The preparation method of the oblique angle anti-lodging three-dimensional fabric consists of the following steps:
[0118] 1) Raw material treatment: three 20-filament nylon filaments are combined into one strand by a parallel line machine to obtain nylon filaments with a specification of 20 filaments 3 strands.
[0119] 2) weaving: the polyester filament is used as the upper and lower warp, the 20-silk 3-strand nylon filament prepared in step 1) is used as the pile warp, and the polyester filament and the hot melt filament are used as the upper and lower layers and the pile warp and weft on a multi-head loom, wherein the ratio of the amount of the polyester filament to the hot melt filament is 75%:25%, the weft density is 11.6 needles / cm, the number of the yarns of the disc head is 152, the ironing plate temperature is 170 DEG C, the steel reed used for weaving is a special-shaped steel reed, the included angle between the special-shaped steel reed right-angle upper edge (a) and the special-shaped steel reed right-angle lower edge (b) is 125 DEG, and the included angle between the special-shaped steel reed right-angle lower edge (b) and the special-shaped steel reed extrusion edge (c) is 135 DEG; the winding mode of the weaving is staggered winding, the pile warp is cut off by a blade when the fabric is not wound, and the upper and lower layers are separated;
[0120] the loom is set according to Figure 4 the drawing-in of the healds and the reed, wherein the 3rd to 10th healds are used to draw in the polyester filament, and the remaining healds are used to draw in the nylon filament; Figure 4 in the drawing-in of the healds and the reed in the drawing, all the healds are 5-hole healds, and from top to bottom of the heald frame, the holes are sequentially numbered as: ① hole, ② hole, ③ hole, ④ hole, and ⑤ hole; in the drawing: "△" represents the upper warp, and is drawn into the ① hole of the 3rd to 6th heald frames; "×" represents the lower warp, and is drawn into the ⑤ hole of the 7th to 10th heald frames; "▼" represents the pile warp, and is drawn into the ③ hole of the 1st to 2nd heald frames; P1 represents the ③ hole of the 1st heald frame, and P2 represents the ③ hole of the 2nd heald frame; two openings are formed by adjusting the height of the heald frame, two weft needles are used for weft insertion, and a latch needle is used for edge collection;
[0121] the loom is set according to Figure 5 the setting of the loom guide plate, and in the drawing: "■" represents the heald frame lifting, and is a warp organization point; and "□" represents the heald frame descending, and is a weft organization point.
[0122] 3) gluing: the bottom of the three-dimensional fabric is glued with water-based PU glue, the gluing machine speed is 6 m / min, and the gluing temperature is 120 DEG C.
[0123] 4) slitting: the three-dimensional fabric after gluing is divided into 4 strips by a slitting machine, and the width is 5.95 mm.
[0124] 5) carding: the three-dimensional fabric after slitting is carded by a carding machine.
[0125] 6) slitting: the three-dimensional fabric after carding is slitted into a required length by a slitting machine.
[0126] Figure 6 the actual picture of the oblique angle pile warp direction of the oblique angle anti-lodging three-dimensional fabric in examples 1 and 2 is shown in Figure 6 It can be seen that the oblique angle pile warp is inclined at a certain angle in the warp direction.
[0127] Figure 7The images show actual pictures of the oblique pile weft direction of the oblique anti-collapse three-dimensional fabrics in Examples 1 and 2. Figure 7 It can be seen that the oblique-angled fibers are tilted at a certain angle in the weft direction.
[0128] Figure 8 This is a photograph of the oblique hard yarn warp direction of the oblique anti-collapse three-dimensional fabric in Example 3. Figure 8 It can be seen that the oblique hard wire forms an oblique angle in the warp direction.
[0129] Figure 9 This is a physical image of the oblique hard yarn weft direction of the oblique anti-collapse three-dimensional fabric in Example 3, from... Figure 9 It can be seen that the angled hard yarn does not form an angle in the weft direction.
[0130] A schematic diagram of the side structure of the oblique anti-collapse three-dimensional fabric in Example 3 is shown below. Figure 10 As shown, by Figure 10 It can be seen that the fibers at the head end are interwoven with the fabric base at an angle; in the figure, H represents the vertical pile height including the base, H 净 The vertical height of the hairline is represented by A, which represents the distance from the starting position of the measurement angle to the tip of the hairline, and h represents the vertical distance to the bottom when the angle is measured.
[0131] The oblique anti-collapse three-dimensional fabrics prepared in Examples 1-3 were used on a floor scrubber to test their cleaning effect, nap direction and anti-tangling effect. The results are shown in Table 1.
[0132] Table 1. Performance of the oblique anti-collapse three-dimensional fabrics prepared in Examples 1-3
[0133]
[0134] As can be seen from the above embodiments, the oblique anti-collapse three-dimensional fabric provided by the present invention does not easily change its pile direction after washing, has a good cleaning effect, and can prevent impurities from tangling. The cleaning effect before washing is: floor 99.4%, carpet 67%, and gaps 102.7%. The cleaning effect after washing is: floor 99.9%, carpet 66%, and gaps 105.1%. The pile direction before washing is: 60±10°. The pile direction after washing is: 60±5°. The anti-tangling effect is: hair can be removed 16 seconds after tangling.
[0135] The above description is only a preferred embodiment of the present invention. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present invention, and these improvements and modifications should also be considered within the scope of protection of the present invention.
Claims
1. An angled anti-collapse three-dimensional fabric, the angled anti-collapse three-dimensional fabric comprising a fabric base and head-end fibers, the head-end fibers being interwoven with the fabric base in an inclined manner; The raw materials of the oblique anti-collapse three-dimensional fabric include polyester filament and nylon filament, or polyester filament, nylon filament and hot melt yarn; The preparation method of the oblique anti-collapse three-dimensional fabric includes the following steps in sequence: raw material treatment, weaving and finishing; The head-end fibers include fluffy fibers or hard filament fibers; The tilt angle of the head-end fiber is 30±5°~75±5°; The net height of the head-end fibers is 5.5±0.2~11.5±0.5mm; When the head end fiber is a fluff fiber, the reed used in the weaving is a conventional reed; When the head end fiber is a hard filament fiber, the reed used in the weaving is a shaped reed; the angle between the right-angled upper side (a) and the right-angled lower side (b) of the shaped reed is 100°~150°, and the angle between the right-angled lower side (b) and the extruded side (c) of the shaped reed is 120°~150°. By using a special-shaped reed, weft insertion points are increased, causing the upper and lower layers to be inserted at different angles and not on the same vertical line, ensuring that the fibers tilt from the root. The weaving method is staggered winding; By employing staggered winding, the warp feed speed of the upper and lower layers of fabric is inconsistent, causing misalignment between the upper and lower layers, thus achieving diagonal tension fixation.
2. The beveled anti-inversion dimensional fabric of claim 1, wherein, When the head-end fiber is a fluffy fiber, the specifications of the nylon filament include 850D / 120F, 1600D / 64F, or 40 count 3 strands; when the head-end fiber is a hard filament fiber, the specifications of the nylon filament include 12 filaments 5 strands, 20 filaments 3 strands, or 15 filaments 4 strands.
3. The beveled anti-inversion dimensional fabric of claim 1, wherein, When the head-end fiber is a fluffy fiber, the weaving process also includes sequential calendering and steam setting.
4. The beveled anti-inversion dimensional fabric of claim 3, wherein, The calendering temperature is 80~200℃, and the calendering time is 5~40min; the steam setting temperature is 80~100℃, and the steam setting time is 5~40min.
5. A method for preparing the oblique anti-collapse three-dimensional fabric according to any one of claims 1 to 4, comprising the following steps performed sequentially: raw material treatment, weaving, and finishing; The weaving method is staggered winding.
6. The application of the oblique anti-collapse three-dimensional fabric according to any one of claims 1 to 4 or the oblique anti-collapse three-dimensional fabric prepared by the preparation method according to claim 5 in cleaning appliances.
Citation Information
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