Intelligent textile new material cutting and storage integrated device

Abstract

The application discloses a kind of new material cutting and receiving integrated device of intelligent textile, it is related to textile technical field, including rack, multiple groups of conveying roller groups are arranged on rack, and the side of rack is connected with tensioning frame by telescopic component, and the rotationally connected with tensioning roller group is arranged on tensioning frame, and the side of rack is provided with receiving mechanism away from conveying roller group in tensioning mechanism, and receiving mechanism includes receiving frame, and the side of receiving frame is provided with receiving motor, and the output shaft of receiving motor is fixedly connected with clamping seat, and the both sides of receiving frame are provided with U-shaped placing groove, and receiving reel is placed on receiving frame, and the both ends of receiving reel are fixedly connected with extension rod, and the outer rotationally connected with ring-shaped bearing is arranged on extension rod, and ring-shaped bearing is adapted to placing groove, and the cross section of the end of extension rod is non-circular and is adapted to clamping seat, and the installation frame is arranged on rack, and the cutting mechanism is arranged on installation frame.The application can consider cutting and receiving, and improve efficiency.

Description

Technical Field

[0001] This invention relates to the field of textile technology, and in particular to an integrated device for cutting and storing intelligent new textile materials. Background Technology

[0002] With social development and technological advancements, more and more new products are being invented and applied in various aspects of life. In textile production, the cutting device is a key piece of equipment used to cut continuous textile materials to predetermined dimensions, and its performance directly affects production efficiency and product quality. Currently, there are various automated cutting solutions in existing technologies. For example, the document with patent number CN108425233A provides a cutting device for intelligent textile materials. Although this device can achieve automatic cutting and reduce the labor intensity of workers, its cutting blade is disc-shaped. Since the textile fabric to be processed is usually long and rectangular, the disc-shaped blade, due to its structural limitations, can only create a small gap in the fabric with a single action, and cannot achieve a complete cut in one go. It must rely on the reciprocating movement of the blade to complete the cutting, resulting in a long cutting time and low efficiency. In addition, this device lacks a fabric clamping and tensioning structure, and manual tension must be applied to both ends of the fabric during cutting to maintain its flatness, further increasing the difficulty of operation and labor costs. Even worse, the device lacks a fabric placement platform, causing the fabric to fall directly to the ground after being cut, making it highly susceptible to dust and other contaminants, severely impacting the surface quality of the finished fabric. Therefore, this existing solution has significant shortcomings in practical applications and fails to meet the high-efficiency and high-quality requirements of intelligent textile production.

[0003] To address the efficiency and support deficiencies of the aforementioned disc-shaped cutters, subsequent technologies have developed cutting devices using long, strip-shaped cutters (such as cross-cutting blades or guillotine blades). These blades can completely cut the entire fabric with a single downward press, significantly improving cutting speed and cut neatness. Simultaneously, some improved designs have added fabric support platforms, forming a flat support surface below the cutting area, effectively preventing the fabric from falling directly after cutting due to lack of support, thus reducing the risk of fabric contamination. However, these improved devices still have significant functional deficiencies: they focus solely on the cutting action itself, lacking any structure for collecting or storing the cut fabric. This means that after each cut, operators must manually remove the cut fabric from the platform and stack it separately, disrupting the continuity of the production process and increasing manual assistance time, hindering the efficient operation of large-scale automated production. Furthermore, due to the lack of automatic winding or sorting stacking mechanisms, the cut fabric pieces are prone to scattering or tangling, increasing the burden on subsequent finishing processes and further restricting the overall intelligence level of the production line.

[0004] In summary, although existing cutting devices have made some progress in automated cutting, many technical problems still need to be solved. Specifically, early disc-shaped cutter designs were limited by low cutting efficiency and a lack of tension and support structures; while later long strip cutter designs improved the cutting effect and fabric support, but lacked the function of storing the cut fabric. Summary of the Invention

[0005] In order to solve at least one of the above-mentioned technical problems, the purpose of this invention is to provide an integrated intelligent textile material cutting and storage device that combines cutting and storage, thereby improving efficiency.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] A smart textile material cutting and storage integrated device includes a frame with multiple sets of conveyor rollers. A tensioning frame is connected to one side of the frame via a telescopic component, and tensioning rollers are rotatably connected to the tensioning frame. A storage mechanism is located on the side of the frame away from the conveyor rollers. The storage mechanism includes a storage rack with a storage motor on one side. The output shaft of the storage motor is fixedly connected to a locking seat. U-shaped placement slots are provided on both sides of the storage rack, and a storage roll is placed on the storage rack. Extension rods are fixedly connected to both ends of the storage roll, and annular bearings are rotatably connected to the extension rods. The annular bearings are adapted to the placement slots. The cross-section of the end of the extension rod is non-circular and adapted to the locking seat. A mounting frame is provided on the frame, and a cutting mechanism is provided on the mounting frame.

[0008] Preferably, the cutting mechanism includes a lifting assembly fixedly connected to the mounting frame, a cutting frame fixedly connected to the movable part at the bottom of the lifting assembly, a transverse moving assembly fixedly connected to the bottom of the cutting frame, and a cutting blade connected to the movable part at the bottom of the transverse moving assembly.

[0009] Preferably, a cutting motor is fixedly connected to the bottom movable part of the transverse component, the output shaft of the cutting motor is fixedly connected to the cutting blade, and the cutting blade is configured as a disc with serrated edges.

[0010] Preferably, the lifting assembly is a lifting electric cylinder.

[0011] Preferably, the telescopic component and the lateral component are configured as an electric slide.

[0012] Preferably, both the conveying roller group and the tensioning roller group include a driving roller and a driven roller, and the driving roller is driven to rotate by a motor.

[0013] Preferably, a pressure sensor is provided between the tensioning frame and the movable part of the telescopic assembly, and the pressure sensor is electrically connected to the telescopic assembly through a control unit.

[0014] Preferably, the control unit is a programmable logic controller.

[0015] The present invention has the following beneficial effects:

[0016] I. Improving the Efficiency of Integrated Cutting and Storage: This invention integrates a conveyor roller assembly, tensioning frame, cutting mechanism, and storage mechanism onto a single frame, creating a complete production line operation path from inputting new textile materials, tensioning, cutting, to storage. Compared to existing technologies that separate cutting and storage and require manual fabric transfer, this invention achieves continuous and automated connection between cutting and storage. The conveyor roller assembly stably transports the fabric to the cutting area. After the cutting mechanism completes the cutting, the cut fabric pieces are directly received and rolled up by the storage roll, eliminating the need for manual removal and stacking by operators. This continuous operation mode eliminates interruptions in the production process, significantly shortens the single cutting cycle, increases the throughput per unit time, and thus greatly improves overall production efficiency, meeting the demands of large-scale automated production for high-speed continuous operation.

[0017] II. Ensuring Fabric Flatness During Cutting to Improve Cut Quality: This invention features a tensioning frame connected by a telescopic component between the conveyor roller group and the cutting mechanism. The tensioning roller group is rotatably connected to the tensioning frame, and the tension applied to the fabric by the telescopic component can be adjusted. Before the cutting action, the telescopic component moves the tensioning frame, causing the tensioning roller group and the conveyor roller group to work together to apply appropriate tension to the fabric, effectively eliminating wrinkles and looseness on the fabric surface. The flat tension ensures uniform force on the cutting blade during cutting, resulting in a neat and uniform fabric cross-section. This avoids skewed cuts, rough edges, or dimensional deviations caused by fabric shrinkage, significantly improving the cut quality and dimensional accuracy of the finished fabric, reducing subsequent finishing processes, and increasing the product yield.

[0018] Third, this invention prevents fabric from falling and contaminating the finished product while ensuring a clean surface. A receiving mechanism is installed on the side of the frame away from the conveyor rollers. This mechanism includes a receiving frame, a receiving motor, a clamping seat, and a placement slot. The receiving roll is rotatably placed in the placement slot via an extension rod and a ring bearing, and is connected to the clamping seat. After cutting, the cut fabric end is directly received and wound by the receiving roll, completely preventing the fabric from falling to the ground due to lack of support. Compared to the shortcomings of existing technologies where fabric falls directly to the ground after cutting and becomes contaminated with dust, oil, and other pollutants, this invention immediately winds the cut fabric onto the receiving roll, keeping the finished fabric in a controlled clean environment. This effectively ensures the cleanliness of the surface of the new textile material, making it particularly suitable for the production of high-end fabrics with high cleanliness requirements, and reducing waste caused by contamination.

[0019] IV. Achieving Intelligent Adaptive Adjustment of Cutting Tension: This invention incorporates a pressure sensor between the tensioning frame and the moving part of the telescopic assembly. This pressure sensor is electrically connected to the telescopic assembly via a control unit. The pressure sensor detects the tension value applied to the fabric by the tensioning rollers in real time and feeds the signal back to the control unit. Based on the comparison between a preset tension threshold and the real-time detected value, the control unit dynamically adjusts the extension and retraction of the telescopic assembly, thereby automatically adjusting the clamping force of the tensioning rollers on the fabric. This closed-loop control mechanism eliminates reliance on manual experience for tension adjustment, automatically adapting the optimal tension force to new textile materials of different thicknesses, materials, and widths. This prevents insufficient tension from causing fabric slackness, while avoiding excessive tension that could lead to fabric stretching, deformation, or breakage, thus improving the device's adaptability to different material specifications and the stability of the cutting process.

[0020] V. Optimizing the cutting blade's movement path to achieve efficient and complete cutting; The cutting mechanism in this invention includes a lifting component and a lateral movement component. The lifting component drives the entire cutting frame to rise and fall, while the movable part at the bottom of the lateral movement component connects to the cutting blade, allowing the cutting blade to move laterally along the width of the fabric after descending to the working position. When the cutting blade is set to a disc-shaped sawtooth and driven to rotate by a cutting motor, combined with the horizontal feed motion of the lateral movement component, the blade moves laterally along the fabric while rotating and cutting, achieving continuous and complete cutting of the entire fabric. Compared to the shortcomings of existing disc blades that can only form local gaps and require multiple reciprocating movements, this invention, through the combined motion of lifting and lateral movement, allows the cutting blade to complete a complete cut from one edge of the fabric to the other in a single descent. The cutting path is direct and efficient, significantly reducing the time required for a single cut. Simultaneously, the disc-shaped sawtooth blade has the advantages of low cutting resistance and a smooth cut surface, further improving the cutting effect.

[0021] VI. Simplifying the loading and unloading of the storage roll to shorten auxiliary time: This invention features U-shaped placement slots on both sides of the storage rack, with extension rods fixed to both ends of the storage roll. The extension rods are externally connected to ring bearings, which are adapted to the placement slots. The ends of the extension rods have non-circular cross-sections that mate with the locking seats. The open structure of the U-shaped placement slots allows the storage rolls to be directly placed or removed from top to bottom without complex disassembly or assembly. The ring bearings ensure smooth rotation of the rolls within the placement slots. When the storage roll is fully wound, the operator only needs to lift it from the placement slot to quickly replace it with a new empty roll. The engagement between the locking seats and the non-circular ends of the extension rods ensures reliable power transmission without hindering easy loading and unloading of the rolls. This design significantly shortens roll-changing auxiliary time, reduces production line downtime, and helps maintain production continuity and high output.

[0022] VII. Achieving Stable Control of Multi-Roller Group Collaborative Conveying and Tensioning: In this invention, both the conveyor roller group and the tensioning roller group include active rollers and driven rollers. The active rollers are driven by a motor to ensure active power input for the fabric during conveying and tensioning. The conveyor roller group is responsible for stably pulling the fabric from upstream to the cutting area. The tensioning roller group, driven by the telescopic component, works in conjunction with the conveyor roller group to form a tension adjustment range. Both roller groups adopt a roller-to-roller structure with active and driven rollers, increasing the contact area and friction with the fabric, preventing slippage, and ensuring that the fabric maintains accurate position and speed synchronization during high-speed conveying and tension adjustment. This provides a reliable foundation for subsequent precise cutting and improves the stability and reliability of the entire machine operation. Attached Figure Description

[0023] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present invention and should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0024] Figure 1 This is a front view of an embodiment of the present invention.

[0025] Figure 2 This is a schematic diagram of the storage mechanism structure according to an embodiment of the present invention.

[0026] In the diagram: 1. Frame; 2. Conveyor roller assembly; 301. Telescopic assembly; 302. Tensioning frame; 303. Tensioning roller assembly; 304. Pressure sensor; 4. Mounting frame; 501. Lifting assembly; 502. Cutting frame; 503. Lateral movement assembly; 504. Cutting motor; 505. Cutting blade; 601. Storage rack; 611. Placement slot; 602. Storage drum; 621. Extension rod; 622. Ring bearing; 603. Snap-fit ​​seat; 604. Storage motor. Detailed Implementation

[0027] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0028] like Figures 1 to 2As shown, a smart textile new material cutting and storage integrated device includes a frame 1, on which multiple sets of conveyor roller groups 2 are arranged. A tensioning frame 302 is connected to one side of the frame 1 via a telescopic component 301. A tensioning roller group 303 is rotatably connected to the tensioning frame 302. A storage mechanism is arranged on the side of the frame 1 away from the tensioning mechanism and the conveyor roller group 2. The storage mechanism includes a storage frame 601. A storage motor 604 is arranged on one side of the storage frame 601. The output shaft of the storage motor 604 is fixedly connected to... The card holder 603 and the storage rack 601 are provided with U-shaped placement slots 611 on both sides. The storage rack 601 is used to place the storage roll 602. The storage roll 602 is fixedly connected to both ends of the storage roll 602. The extension rod 621 is rotatably connected to the extension rod 621. The ring bearing 622 is adapted to the placement slot 611. The cross-section of the end of the extension rod 621 is non-circular and adapted to the card holder 603. The frame 1 is provided with a mounting frame 4 and a cutting mechanism is provided on the mounting frame 4.

[0029] like Figures 1 to 2 As shown, the intelligent textile new material cutting and storage integrated device provided by this invention achieves stable input of textile new materials based on multiple sets of conveyor roller groups 2 on the frame 1. The conveyor roller group 2 includes a driving roller and a driven roller. The driving roller is driven by a motor to rotate, using friction with the fabric to move the fabric forward. The driven roller applies appropriate pressure to the fabric to enhance conveying stability. Multiple sets of conveyor roller groups 2 are arranged sequentially to ensure that the fabric has a stable feed speed and accurate conveying direction before entering the subsequent tensioning and cutting areas.

[0030] When the fabric is conveyed to the tensioning area via the conveyor roller assembly 2, the tensioning frame 302 connected to one side of the frame 1 via the telescopic assembly 301 and the tensioning roller assembly 303 rotatably connected thereto begin to function. The telescopic assembly 301 can extend or retract in a specific direction, causing the tensioning frame 302 and the tensioning roller assembly 303 to move relative to the frame 1. The tensioning roller assembly 303 also includes a driving roller and a driven roller and is driven to rotate by a motor. When the telescopic assembly 301 extends, the tensioning roller assembly 303 moves away from the conveyor roller assembly 2, applying a tensile force to the fabric held between them, thereby eliminating wrinkles and slack in the fabric and keeping it in a flat, taut state. This taut state provides a stable fabric shape basis for subsequent cutting, preventing cutting deviations caused by fabric deformation and effectively ensuring cut neatness and dimensional accuracy.

[0031] After being tensioned, the fabric continues to move forward to the cutting mechanism's station. The cutting mechanism is mounted on a mounting frame 4 on the machine frame 1 and includes a lifting assembly 501, a cutting frame 502, a traversing assembly 503, and a cutting blade 505. The lifting assembly 501 is fixed to the mounting frame 4, and its bottom movable part is fixedly connected to the cutting frame 502. When the fabric reaches the predetermined cutting position and the conveying and tensioning actions pause, the lifting assembly 501 actuates, causing the cutting frame 502 to move downwards, lowering the cutting blade 505 from its standby high position to a working low position close to the fabric surface. The cutting blade 505 is fixedly connected to a cutting motor 504, which is fixed to the movable part at the bottom of the traversing assembly 503. After the cutting blade 505 descends to its final position, the cutting motor 504 starts, driving the cutting blade 505 to rotate at high speed. Simultaneously, the lateral movement component 503 drives the cutting motor 504 and the cutting blade 505 to move laterally along the width of the fabric. The high-speed rotating blade continuously cuts the fabric during this lateral movement, achieving a complete cut across the entire width by moving from one edge to the other. After cutting is complete, the lifting component 501 drives the cutting frame 502 and the cutting blade 505 to rise and reset, awaiting the next cutting instruction.

[0032] After the fabric is cut, it no longer adheres to the continuous fabric upstream and needs to be promptly collected to prevent it from falling and contaminating the material. This invention utilizes a collection mechanism located on the side of the tensioning mechanism away from the conveyor roller group 2 to accomplish this task. The collection mechanism includes a collection frame 601, a collection motor 604, a locking seat 603, a placement groove 611, and a collection drum 602. The collection frame 601 has U-shaped placement grooves 611 on both sides. Extension rods 621 are fixedly connected to both ends of the collection drum 602, and annular bearings 622 are rotatably connected to the outside of the extension rods 621. The outer contour of the annular bearings 622 matches the inner wall shape of the U-shaped placement grooves 611. The operator places the annular bearings 622 at both ends of the collection drum 602 into the U-shaped placement grooves 611 on both sides, thus stably supporting the drum on the collection frame 601 while allowing it to rotate freely under the rolling support of the annular bearings 622.

[0033] The end cross-section of the extension rod 621 is designed to be non-circular, such as square or hexagonal, and this non-circular end is compatible with the locking seat 603 fixedly connected to the output shaft of the storage motor 604. When the storage roll 602 is placed in position, the non-circular end of its extension rod 621 is precisely inserted into the corresponding non-circular hole of the locking seat 603, forming a circumferential fixed connection, so that the rotational power of the storage motor 604 can be reliably transmitted to the storage roll 602. After the cutting action is completed, the storage motor 604 starts rotating at a predetermined speed, driving the storage roll 602 to rotate, and wrapping the cut fabric end that has detached from the upstream traction around the surface of the roll. As the storage roll 602 continues to rotate, the fabric is neatly rolled into a roll, realizing the immediate collection of the cut fabric. Once a roll of fabric has been wound to the set length, the operator can directly remove the storage roll 602 along with the finished fabric wound on it from the U-shaped placement slot 611. Since the U-shaped slot is an open structure, the loading and unloading operation is extremely convenient. Then, a new empty roll can be inserted to continue the next round of winding.

[0034] like Figures 1 to 2 As shown, the cutting mechanism of this invention includes a lifting assembly 501 fixedly connected to the mounting frame 4. A cutting frame 502 is fixedly connected to the movable part at the bottom of the lifting assembly 501. A transverse moving assembly 503 is fixedly connected to the bottom of the cutting frame 502, and a cutting blade 505 is connected to the movable part at the bottom of the transverse moving assembly 503. The lifting assembly 501 uses a lifting electric cylinder, and its movable part can extend and retract vertically. When the fabric arrives at the cutting station after being conveyed and tensioned, the lifting electric cylinder is activated, its movable part extends, and it drives the cutting frame 502 to move downwards as a whole. The cutting frame 502 then drives the transverse moving assembly 503 and the cutting blade 505 to descend from the standby high position to the working low position close to the fabric surface, preparing for the horizontal cutting action. This lifting action keeps the cutting blade 505 away from the fabric during non-working periods, avoiding interference with the normal fabric conveying, while ensuring accurate cutting at the cutting position during working hours, guaranteeing the timing accuracy and position repeatability of the cutting action.

[0035] A cutting motor 504 is fixedly connected to the bottom movable part of the transverse component 503. The output shaft of the cutting motor 504 is fixedly connected to the cutting blade 505, which is designed as a disc-shaped sawtooth. The transverse component 503 uses an electric slide table, and its bottom movable part can move horizontally in a straight line along the width of the fabric. When the cutting blade 505 is lowered into position with the lifting component 501, the cutting motor 504 starts, driving the disc-shaped sawtooth cutting blade 505 to rotate at high speed. At the same time, the movable part of the electric slide table drives the cutting motor 504 and the cutting blade 505 to move laterally along the width of the fabric. The high-speed rotating disc-shaped sawtooth blade continuously cuts the fabric during the lateral feed process. The sawtooth structure can effectively disperse cutting resistance and reduce frictional heat, making the cutting process smooth and stable. Since the cutting blade 505 has both rotational and lateral feed motion, the blade can completely cut the entire fabric by moving from one edge to the other edge, eliminating the need for multiple reciprocating movements and significantly improving the efficiency of a single cut.

[0036] Both the telescopic assembly 301 and the lateral movement assembly 503 are electric slides. The telescopic assembly 301, as an electric slide, has its movable part connected to the tension frame 302. By controlling the extension of the movable part, the distance between the tension roller group 303 and the conveyor roller group 2 is adjusted, thereby changing the degree of fabric stretch. The electric slide features precise positioning, rapid response, and smooth operation, enabling fine adjustment of the tension force. The lateral movement assembly 503 also uses an electric slide, ensuring the uniformity of the speed and accuracy of the lateral movement of the cutting blade 505, resulting in a straight cutting path and neat cuts. Using the same drive mechanism for both simplifies the control logic and maintenance process.

[0037] Both the conveyor roller group 2 and the tension roller group 303 include a driving roller and a driven roller. The driving roller is driven by a motor to rotate. Driven by the motor, the driving roller generates a rotary motion, using the friction between the roller surface and the fabric to propel the fabric forward or provide tension. The driven roller follows the rotation of the driving roller, simultaneously applying a certain clamping force to the fabric through the clamping gap between them, increasing the contact area and friction to prevent the fabric from slipping or shifting during transport. For the conveyor roller group 2, the rotation of the driving roller provides the traction force for the fabric to move forward; for the tension roller group 303, the rotation of the driving roller, in conjunction with the displacement of the telescopic component 301, maintains continuous fabric transport while the fabric is stretched, preventing the fabric from stalling or being damaged due to excessive tension. Both roller groups adopt an active drive method, ensuring sufficient power and independent control of the entire conveying and tensioning process.

[0038] A pressure sensor 304 is installed between the tensioning frame 302 and the movable part of the telescopic assembly 301. This pressure sensor 304 is electrically connected to the telescopic assembly 301 via a control unit. The pressure sensor 304 directly detects the tension applied to the fabric by the tension roller assembly 303 and converts the detected pressure signal into an electrical signal, which is transmitted to the control unit in real time. The control unit uses a programmable logic controller (PLC) with pre-stored target tension values ​​set according to different fabric materials and thicknesses. The control unit compares the received real-time pressure signal with the preset target value. When the detected value is higher or lower than the target range, the control unit sends an adjustment command to the telescopic assembly 301, driving the movable part of the electric slide to fine-tune the extension or retraction amount, thereby changing the pressure of the tension roller assembly 303 on the fabric, ensuring that the actual tension always approaches the set value. This closed-loop feedback control mechanism achieves automatic tension adjustment without manual intervention, adapting to the tension requirements of different specifications of new textile materials and ensuring the stability and consistency of fabric tension during the cutting process.

[0039] The above are merely specific embodiments of the present invention, but the technical features of the present invention are not limited thereto. Any simple changes, equivalent substitutions, or modifications made based on the present invention to solve essentially the same technical problems and achieve essentially the same technical effects are all covered within the protection scope of the present invention.

Claims

1. A smart textile new material cutting and storage integrated device, comprising a frame (1), characterized in that, The frame (1) is provided with multiple sets of conveyor roller groups (2). A tensioning frame (302) is connected to one side of the frame (1) via a telescopic component (301). A tensioning roller group (303) is rotatably connected to the tensioning frame (302). A storage mechanism is provided on the side of the frame (1) away from the conveyor roller group (2). The storage mechanism includes a storage frame (601). A storage motor (604) is provided on one side of the storage frame (601). The output shaft of the storage motor (604) is fixedly connected to a retaining seat (603). The storage frame (601) is... 1) U-shaped placement slots (611) are provided on both sides. A storage roll (602) is placed on the storage rack (601). An extension rod (621) is fixedly connected to both ends of the storage roll (602). An annular bearing (622) is rotatably connected to the extension rod (621). The annular bearing (622) is adapted to the placement slot (611). The cross-section of the end of the extension rod (621) is non-circular and adapted to the snap-fit ​​seat (603). A mounting frame (4) is provided on the frame (1). A cutting mechanism is provided on the mounting frame (4).

2. The intelligent textile new material cutting and storage integrated device according to claim 1, characterized in that, The cutting mechanism includes a lifting assembly (501) fixedly connected to the mounting frame (4), a cutting frame (502) fixedly connected to the movable part at the bottom of the lifting assembly (501), a transverse assembly (503) fixedly connected to the bottom of the cutting frame (502), and a cutting blade (505) connected to the movable part at the bottom of the transverse assembly (503).

3. The intelligent textile new material cutting and storage integrated device according to claim 2, characterized in that, The bottom movable part of the transverse component (503) is fixedly connected to a cutting motor (504), and the output shaft of the cutting motor (504) is fixedly connected to a cutting blade (505), which is configured as a disc with saw teeth.

4. The intelligent textile new material cutting and storage integrated device according to claim 2, characterized in that, The lifting assembly (501) is a lifting electric cylinder.

5. The intelligent textile new material cutting and storage integrated device according to claim 1, characterized in that, The telescopic assembly (301) and the transverse assembly (503) are configured as electric slides.

6. The intelligent textile new material cutting and storage integrated device according to claim 1, characterized in that, Both the conveying roller group (2) and the tensioning roller group (303) include a driving roller and a driven roller, and the driving roller is driven to rotate by a motor.

7. The intelligent textile new material cutting and storage integrated device according to claim 1, characterized in that, A pressure sensor (304) is provided between the tensioning frame (302) and the movable part of the telescopic assembly (301), and the pressure sensor (304) is electrically connected to the telescopic assembly (301) through a control unit.

8. The intelligent textile new material cutting and storage integrated device according to claim 7, characterized in that, The control unit is configured as a programmable logic controller.

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