Optical fiber fusion printing device

Abstract

The utility model relates to a light-guide fiber fusion printing device, which belongs to the technical field of light-guide fiber fusion printing devices and comprises an automatic weaving machine body and a supporting table, the automatic weaving machine body is positioned on the left side of the supporting table, a discharging barrel is arranged on the right side of the automatic weaving machine body, and a connecting mechanism is arranged on the upper surface of the supporting table. The connecting mechanism comprises a constant-temperature box, a mounting frame, a constant-temperature heating plate, a fixing cover, a handle, two supporting frames, a first electric push rod, a pressing plate and a connecting assembly. The connecting assembly comprises two telescopic rods, a moving module, a second electric push rod, a connecting plate and an ink-jet printer body. According to the light-guide fiber fusion printing device, high-precision printing of complex patterns on fabric is successfully achieved, the durability and attractiveness of the light-guide fibers fused into the fabric are remarkably improved, the service life is greatly prolonged, high-precision complex pattern printing is achieved, and the fabric is endowed with excellent waterproof and antifouling performance in combination with the super-hydrophobic film technology.

Description

Technical Field

[0001] This utility model relates to the technical field of optical fiber fusion printing device, specifically an optical fiber fusion printing device. Background Technology

[0002] Currently, in the textile processing field, traditional printing and dyeing techniques and modern digital printing techniques are relatively mature. However, in pursuit of more unique visual effects and functionality, how to make fabrics both aesthetically pleasing and functional has become a new research hotspot. With the advancement of optical materials and the growth of market demand, optical fibers, as a special material, have been introduced into textile design in order to achieve unique visual effects and specific functional requirements.

[0003] Existing technological solutions: Most current applications of optical fibers are concentrated in the lighting industry, such as fiber optic lamps and fiber optic transmission devices in medical equipment. However, their application in textiles mainly involves simply weaving optical fibers into the fabric to achieve luminescence or color-changing effects. While this approach can meet certain visual needs to some extent, the lack of sophisticated processing technology and technical support often results in products with low durability and limited color variations. Furthermore, traditional printing techniques are also difficult to achieve high-precision printing of complex patterns on fabrics with optical fibers.

[0004] There are technical drawbacks: First, simply embedding optical fibers into fabrics not only reduces overall strength but also makes them prone to wear and tear, resulting in a shorter lifespan. Second, traditional printing techniques cannot effectively handle the surface characteristics of optical fibers, limiting the expressive power of the final product's patterns. Finally, existing technologies have failed to fully utilize the potential advantages of optical fibers, such as multi-color display and dynamic effect display, which have not yet been effectively developed. Utility Model Content

[0005] To address the shortcomings of existing technologies, this utility model provides an optical fiber fusion printing device, which has the advantages of high-precision printing of complex patterns while improving the overall quality of the fabric. It solves the problems of poor durability after optical fibers are embedded in the fabric and the inability of traditional printing technology to adapt to fabrics with optical fibers.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a fiber optic fusion printing device, comprising an automated loom body and a support platform, wherein the automated loom body is located on the left side of the support platform, a discharge cylinder is provided on the right side of the automated loom body, and a connecting mechanism is provided on the upper surface of the support platform.

[0007] The connecting mechanism includes a constant temperature chamber, a mounting frame, a constant temperature heating plate, a fixed cover, a handle, two support frames, a first electric push rod, a pressing plate, and a connecting assembly. The constant temperature chamber is located on the left side of the upper surface of the support platform. The mounting frame is located on the bottom wall of the inner cavity of the constant temperature chamber. The constant temperature heating plate is located on the upper surface of the mounting frame. The fixed cover is hinged to the upper surface of the constant temperature chamber via a hinge seat. The handle is located on the upper surface of the fixed cover. Both support frames are located on the back of the support platform. The first electric push rod is located on the upper surface of the left support frame via a fixed frame. The outer side of the output shaft of the first electric push rod slides through the left support frame and extends into it. The outer side of the output shaft of the first electric push rod is fixedly connected to the upper surface of the pressing plate.

[0008] The connecting assembly includes two telescopic rods, a moving module, a second electric push rod, a connecting plate, and an inkjet printer body. The two telescopic rods are located on the left and right sides of the top wall of the left support frame cavity, and the bottom ends of the telescopic rods are fixedly connected to the upper surface of the pressing plate. The moving module is located on the top wall of the right support frame cavity, the second electric push rod is located on the lower surface of the moving module, the connecting plate is located outside the output shaft of the second electric push rod, and the inkjet printer body is located on the lower surface of the connecting plate.

[0009] By adopting this technical solution, the fabric can be printed with high precision and complex patterns while improving the overall quality of the fabric.

[0010] Furthermore, the telescopic rod includes a first slide rod, and a second slide rod is slidably connected inside the first slide rod.

[0011] By adopting this technical solution, the second slide bar can slide up and down inside the first slide bar.

[0012] Furthermore, an anti-slip sleeve, which is a rubber sleeve, is provided on the outer side of the handle.

[0013] This technical solution improves the stability of the handle.

[0014] Furthermore, the constant temperature heating plate is located on the longitudinal central axis of the mounting frame.

[0015] By adopting this technical solution, the constant temperature heating plate can heat the fabric at a constant temperature and perform heat setting treatment, which can improve the stability of the fabric.

[0016] Furthermore, the telescopic rods on the left and right sides are symmetrically distributed on both sides of the longitudinal central axis of the left support frame.

[0017] By adopting this technical solution, the stability of the pressing plate movement can be improved through the telescopic rods on the left and right sides.

[0018] Furthermore, the mobile module is located on the longitudinal central axis of the right support frame.

[0019] By adopting this technical solution, the inkjet printer body can be moved forward, backward, left, and right by the moving module to perform printing operations.

[0020] Furthermore, the front of the constant temperature chamber is provided with a first control panel, which is electrically connected to the constant temperature heating plate via wires.

[0021] By adopting this technical solution, the constant temperature heating plate can be turned on and off through the first control panel.

[0022] Furthermore, the first electric push rod is located on the longitudinal central axis of the left support frame.

[0023] By adopting this technical solution, the stability of the pressing plate's vertical movement is improved.

[0024] Compared with the prior art, the technical solution of this application has the following beneficial effects:

[0025] This optical fiber fusion printing device evenly distributes specially designed microporous optical fibers into a base fabric layer woven from a blend of cotton and polyester, and then coats it with a nanoscale superhydrophobic film as a protective surface layer. This creates a novel composite fabric with excellent breathability, high strength, and waterproof and stain-resistant properties. Using specialized inkjet printing equipment, high-precision printing of complex patterns on this fabric is successfully achieved. This significantly improves the durability and aesthetics of the fabric after the optical fibers are integrated, greatly extends its service life, and enables high-precision printing of complex patterns. This greatly enhances the fabric's artistic appeal and commercial value. Combined with superhydrophobic film technology, it endows the fabric with excellent waterproof and stain-resistant properties, broadening its practical application range. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the structure of this utility model;

[0027] Figure 2 This is a schematic diagram of the connection mechanism of this utility model;

[0028] Figure 3 This is a three-dimensional structural diagram of the constant temperature chamber of this utility model.

[0029] In the diagram: 1. Automated loom body; 2. Support platform; 3. Feed cylinder; 4. Connecting mechanism; 41. Constant temperature chamber; 42. Mounting frame; 43. Constant temperature heating plate; 44. Fixed cover; 45. Handle; 46. Support frame; 47. First electric push rod; 48. Pressing plate; 491. Telescopic rod; 492. Moving module; 493. Second electric push rod; 494. Connecting plate; 495. Inkjet printer body. Detailed Implementation

[0030] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0031] Please see Figure 1 The optical fiber fusion printing device in this embodiment includes an automated loom body 1 and a support platform 2. The automated loom body 1 is located on the left side of the support platform 2, and a feed cylinder 3 is provided on the right side of the automated loom body 1. A connecting mechanism 4 is provided on the upper surface of the support platform 2. The connecting mechanism 4 has the advantages of high-precision printing of complex patterns while improving the overall quality of the fabric.

[0032] In this embodiment, the automated loom body 1 is existing technology, and its working principle will not be described in detail.

[0033] Please see Figures 2 to 3 In order to achieve the advantages of high-precision printing of complex patterns while improving the overall quality of the fabric, the connecting mechanism 4 in this embodiment includes a constant temperature box 41, a mounting frame 42, a constant temperature heating plate 43, a fixed cover 44, a handle 45, two support frames 46, a first electric push rod 47, a pressing plate 48, and a connecting assembly. The constant temperature box 41 is located on the left side of the upper surface of the support platform 2, the mounting frame 42 is located on the bottom wall of the inner cavity of the constant temperature box 41, the constant temperature heating plate 43 is located on the upper surface of the mounting frame 42, and the fixed cover 44 is hinged to the upper surface of the constant temperature box 41 through a hinge seat.

[0034] In this embodiment, the handle 45 is disposed on the upper surface of the fixed cover 44, and both support frames 46 are disposed on the back of the support platform 2. The first electric push rod 47 is disposed on the upper surface of the left support frame 46 through the fixed frame. The outer side of the output shaft of the first electric push rod 47 slides through the left support frame 46 and extends into the interior. The outer side of the output shaft of the first electric push rod 47 is fixedly connected to the upper surface of the pressing plate 48.

[0035] In this embodiment, the automated loom body 1 is used to interweave microporous optical fibers and base fabric into a greige fabric according to a predetermined ratio. The base fabric layer is made of cotton and polyester blend, which ensures good air permeability and strength. Then, the greige fabric is placed inside the constant temperature box 41 and heated on the upper surface of the constant temperature heating plate 43. Then, the fixing cover 44 is flipped forward and placed on the upper surface of the constant temperature box 41.

[0036] In this embodiment, the connecting assembly includes two telescopic rods 491, a moving module 492, a second electric push rod 493, a connecting plate 494, and an inkjet printer body 495. The two telescopic rods 491 are both located on the left and right sides of the top wall of the inner cavity of the left support frame 46. The bottom end of the telescopic rod 491 is fixedly connected to the upper surface of the pressing plate 48. The moving module 492 is located on the top wall of the inner cavity of the right support frame 46. The second electric push rod 493 is located on the lower surface of the moving module 492. The connecting plate 494 is located on the outside of the output shaft of the second electric push rod 493. The inkjet printer body 495 is located on the lower surface of the connecting plate 494.

[0037] In this embodiment, the fabric can be heated at a constant temperature by the constant temperature heating plate 43 to perform heat setting treatment, which can improve the stability of the fabric. After the heat setting treatment, the fabric is laid flat on the upper surface of the support platform 2 and located under the pressing plate 48. Then, the nanoscale superhydrophobic film is laid flat on the surface of the fabric. The first electric push rod 47 is activated to drive the pressing plate 48 to move downward and press the nanoscale superhydrophobic film onto the upper surface of the fixed fabric. The pattern is edited using professional software and printed directly by the inkjet printer body 495.

[0038] In this embodiment, in order to achieve a high-precision printing effect, a nanoscale superhydrophobic film is added as a surface protective layer on the composite structure. This design not only gives the entire fabric excellent waterproof and stain-resistant properties, but also provides an ideal planar carrier for subsequent complex pattern printing.

[0039] In this embodiment, the telescopic rod 491 includes a first slide rod, and a second slide rod is slidably connected inside the first slide rod. An anti-slip sleeve is provided on the outside of the handle 45. The anti-slip sleeve is a rubber sleeve. The constant temperature heating plate 43 is located on the longitudinal central axis of the mounting frame 42. The left and right telescopic rods 491 are symmetrically distributed on the left and right sides of the longitudinal central axis of the left support frame 46. The moving module 492 is located on the longitudinal central axis of the right support frame 46. A first control panel is provided on the front of the constant temperature box 41. The first control panel is electrically connected to the constant temperature heating plate 43 through a wire. The first electric push rod 47 is located on the longitudinal central axis of the left support frame 46.

[0040] It should be noted that after pressing, the fabric is laid flat on the upper surface of the support platform 2 and located below the inkjet printer body 495. At this time, the second electric push rod 493 and the inkjet printer body 495 can be activated. The second electric push rod 493 drives the inkjet printer body 495 to move downward to contact the upper surface of the nanoscale superhydrophobic film and perform high-precision pattern printing. The moving module 492 can drive the inkjet printer body 495 to move back and forth and left and right to perform rapid pattern printing. This significantly improves the durability and aesthetics of the fabric after the optical fiber is integrated, greatly extends the service life, realizes high-precision complex pattern printing, greatly enhances the artistic appreciation and commercial value of the fabric, and, combined with superhydrophobic film technology, gives the fabric excellent waterproof and stain-resistant properties, thus broadening the scope of practical applications.

[0041] The working principle of the above embodiments is as follows:

[0042] Using an automated loom 1, microporous optical fibers and base fabric are interwoven into a grey fabric according to a predetermined ratio. The base fabric layer is a blend of cotton and polyester, ensuring good breathability and strength. The grey fabric is then placed inside a constant temperature chamber 41, positioned on the upper surface of a constant temperature heating plate 43 for heating. A fixing cover 44 is then flipped forward and placed over the upper surface of the constant temperature chamber 41. The constant temperature heating plate 43 maintains the grey fabric at a constant temperature for heat setting, improving its stability. After heat setting, the grey fabric is laid flat on the upper surface of a support platform 2, positioned below a pressing plate 48. A nano-scale superhydrophobic film is then laid flat on the upper surface of the grey fabric. The first electric push rod 47 is activated, moving the pressing plate 48 downwards and pressing and fixing the nano-scale superhydrophobic film onto the grey fabric. After pressing, the fabric is laid flat on the upper surface of the support platform 2 and located below the inkjet printer body 495. At this time, the second electric push rod 493 and the inkjet printer body 495 can be activated. The second electric push rod 493 drives the inkjet printer body 495 to move downward to contact the upper surface of the nanoscale superhydrophobic film and perform high-precision pattern printing. The moving module 492 can drive the inkjet printer body 495 to move back and forth and left and right to perform rapid pattern printing. This significantly improves the durability and aesthetics of the fabric after the optical fiber is integrated into it, greatly extends its service life, realizes high-precision complex pattern printing, greatly enhances the artistic appreciation and commercial value of the fabric, and, combined with superhydrophobic film technology, gives the fabric excellent waterproof and stain-resistant properties, expanding the scope of practical applications.

Claims

1. A fiber optic fusion printing device, comprising an automated loom body (1) and a support platform (2), characterized in that: The automated loom body (1) is located on the left side of the support platform (2), and a discharge cylinder (3) is provided on the right side of the automated loom body (1). A connecting mechanism (4) is provided on the upper surface of the support platform (2). The connecting mechanism (4) includes a constant temperature chamber (41), a mounting bracket (42), a constant temperature heating plate (43), a fixing cover (44), a handle (45), two support frames (46), a first electric push rod (47), a pressing plate (48), and a connecting assembly. The constant temperature chamber (41) is located on the left side of the upper surface of the support platform (2). The mounting bracket (42) is located on the bottom wall of the inner cavity of the constant temperature chamber (41). The constant temperature heating plate (43) is located on the upper surface of the mounting bracket (42). The fixing cover (44) is connected by... The hinge seat is hinged to the upper surface of the constant temperature box (41), the handle (45) is set on the upper surface of the fixed cover (44), the two support frames (46) are both set on the back of the support platform (2), the first electric push rod (47) is set on the upper surface of the left support frame (46) through the fixed frame, the outer side of the output shaft of the first electric push rod (47) slides through the left support frame (46) and extends into the interior, and the outer side of the output shaft of the first electric push rod (47) is fixedly connected to the upper surface of the pressing plate (48); The connecting assembly includes two telescopic rods (491), a moving module (492), a second electric push rod (493), a connecting plate (494), and an inkjet printer body (495). The two telescopic rods (491) are both located on the left and right sides of the top wall of the inner cavity of the left support frame (46). The bottom end of the telescopic rod (491) is fixedly connected to the upper surface of the pressing plate (48). The moving module (492) is located on the top wall of the inner cavity of the right support frame (46). The second electric push rod (493) is located on the lower surface of the moving module (492). The connecting plate (494) is located on the outside of the output shaft of the second electric push rod (493). The inkjet printer body (495) is located on the lower surface of the connecting plate (494).

2. The optical fiber fusion printing device according to claim 1, characterized in that: The telescopic rod (491) includes a first slide rod, and a second slide rod is slidably connected inside the first slide rod.

3. The optical fiber fusion printing device according to claim 1, characterized in that: The handle (45) is provided with an anti-slip sleeve on the outside, and the anti-slip sleeve is a rubber sleeve.

4. The optical fiber fusion printing device according to claim 1, characterized in that: The constant temperature heating plate (43) is located on the longitudinal central axis of the mounting bracket (42).

5. The optical fiber fusion printing device according to claim 1, characterized in that: The telescopic rods (491) on the left and right sides are symmetrically distributed on the left and right sides of the longitudinal central axis of the left support frame (46).

6. The optical fiber fusion printing device according to claim 1, characterized in that: The mobile module (492) is located on the longitudinal central axis of the right support frame (46).

7. The optical fiber fusion printing device according to claim 1, characterized in that: The front of the constant temperature chamber (41) is provided with a first control panel, which is electrically connected to the constant temperature heating plate (43) via a wire.

8. The optical fiber fusion printing device according to claim 1, characterized in that: The first electric push rod (47) is located on the longitudinal central axis of the left support frame (46).

Images