Composite simulated fur fiber spinning equipment

Abstract

The utility model discloses composite simulated fur fiber spinning equipment, and relates to the field of polyester filament yarn production.According to the composite simulated fur fiber spinning equipment, a first raw material is metered into a first raw material and a second raw material with different deniers through two metering pumps in a feeding mechanism, the first raw material enters a first cavity through a pipeline and then is sprayed out through a first spinning part at the bottom of the first cavity, and the second raw material enters a second cavity through a pipeline; a second raw material enters a second cavity through the other pipeline and then is sprayed out through a second spinning part at the bottom of the second cavity, meanwhile, a second raw material is sprayed out through the other feeding mechanism, and due to the fact that the component sections of the first spinning part and the second spinning part are different, the denier sections of the sprayed first raw material and the second raw material are different. According to the utility model, two different denier cross sections can be sprayed in one material distributing assembly, so that the technical problem that the existing fiber manufacturing equipment cannot manufacture various different denier cross section fibers in the production process at the same time is solved, and the technical effect that the various different denier cross section fibers can be manufactured in the production process at the same time is achieved.

Description

Technical Field

[0001] The present application relates to the technical field of polyester filament production, and in particular to a composite simulated fur fiber spinning device. Background Art

[0002] In the early days of making simulated fur, the spinnerets in the fiber manufacturing equipment mainly consisted of circular holes. Under the action of pressure, the polymer solution was sprayed through these holes to produce fibers with circular cross-sections. However, the single circular cross-section fiber was quite different from the various shapes of natural animal hair, resulting in a low degree of fur simulation.

[0003] At present, in order to solve the above problems, the spinneret is provided with hole types of different specifications. By accurately installing the spinneret in the fiber manufacturing equipment, when it is necessary to produce fibers with other cross-sectional shapes, the original spinneret in the equipment needs to be disassembled and then replaced with the required spinneret hole type to achieve the production of fibers of different specifications. Finally, the fiber products of different specifications are put into the mesh machine for composite processing. However, this equipment cannot simultaneously produce multiple fibers with different fineness and cross-section during the production process.

[0004] In view of this, we provide a composite simulated fur fiber spinning equipment to solve the above problems. Utility Model Content

[0005] The purpose of this application is to solve the technical problem that existing fiber manufacturing equipment cannot simultaneously produce multiple fibers with different fineness and cross-sections during the production process. In order to solve the above technical problem, a composite simulated fur fiber spinning equipment is provided that can simultaneously produce multiple fibers with different fineness and cross-sections during the production process.

[0006] To achieve the above-mentioned purpose, the embodiment of the present application adopts the following technical scheme: a composite simulated fur fiber spinning equipment, which includes: a feeding mechanism, at least two types of feeding mechanisms are provided, and the feeding mechanism also includes: a box body, a material distribution component and a metering pump; at least two boxes are provided, and the two boxes are arranged adjacent to each other; at least two metering pumps are provided, and the metering pumps are connected to the material distribution component; the material distribution component is provided in the box body, and chamber one and chamber two are provided in the material distribution component, and chamber one and chamber two are hollow; a spinneret is also provided at the bottom of the material distribution component, and the spinneret is tightly engaged with the bottom of the material distribution component, and the spinneret also includes a spinning part one and a nozzle. The component cross-sections of the spinning section two, spinneret one and spinneret two are different. Spinneret one corresponds to chamber one, and spinneret two corresponds to chamber two. The first raw material is metered into raw material one and raw material two of different finenesses by two metering pumps in a feeding mechanism. Raw material one enters chamber one through a pipe and is then ejected through spinneret one at the bottom of chamber one. Raw material two enters chamber two through another pipe and is then ejected through spinneret two at the bottom of chamber two. At the same time, the second raw material is spun through another feeding mechanism. The component cross-sections of spinneret one and spinneret two are different, resulting in different fineness cross-sections of the ejected raw material one and raw material two.

[0007] Further, according to an embodiment of the present application, one metering pump is connected to chamber one, and another metering pump is connected to chamber two, and a screw is provided on the metering pump.

[0008] Furthermore, according to an embodiment of the present application, a drying tower is provided on the screw, and the top diameter of the drying tower is larger than the bottom diameter of the drying tower.

[0009] Furthermore, according to an embodiment of the present application, a transmission tube is provided at one end of the screw, and the other end of the transmission tube is connected to a metering pump, and the transmission tube is used to transmit the raw materials to the metering pump.

[0010] Furthermore, according to an embodiment of the present application, an oil nozzle is provided at the lower end of the cooling box, and there are several oil nozzles.

[0011] Furthermore, according to an embodiment of the present application, a hot roller is provided at the lower end of the oil nozzle, and the hot roller further includes: hot roller one, hot roller two and hot roller three.

[0012] Furthermore, according to an embodiment of the present application, at least two material dividing assemblies are provided.

[0013] Compared with the prior art, the present application has the following beneficial effects: the first raw material is respectively measured into raw material one and raw material two of different fineness by two metering pumps in a feeding mechanism, raw material one enters chamber one through a pipe, raw material one in chamber one is ejected through spinneret one at the bottom, raw material two enters chamber two through another pipe, raw material two in chamber two is ejected through spinneret two at the bottom, and at the same time, the second raw material is spun through another feeding mechanism. Since the component cross-sections of spinneret one and spinneret two are different, the fineness cross-sections of the ejected raw material one and raw material two are different, so two different fineness cross-sections can be spun in one material distribution component, and multiple material distribution components are set to realize the spun with multiple different fineness cross-sections, thereby solving the technical problem that the existing fiber manufacturing equipment cannot simultaneously produce multiple fibers with different fineness cross-sections during the production process, and achieving the technical effect of simultaneously producing multiple fibers with different fineness cross-sections during the production process. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The present application is further described below with reference to the accompanying drawings and examples.

[0015] Figure 1 This is a structural schematic diagram of a composite simulated fur fiber spinning device according to an embodiment of the present application.

[0016] Figure 2 This is a schematic diagram of the structure inside the box of a composite simulated fur fiber spinning equipment in an embodiment of the present application.

[0017] Figure 3 This is a schematic diagram of the top structure of a material distribution component in a composite simulated fur fiber spinning device in an embodiment of the present application.

[0018] Figure 4 This is a schematic structural diagram of a spinneret in a composite simulated fur fiber spinning device according to an embodiment of the present application.

[0019] In the attached figure

[0020] 1. Drying tower 2. Screw 3. Box

[0021] 4. Metering pump 5. Material distribution component 51. Chamber 1

[0022] 52, Chamber 2 6, Pipe 7, Oil Nozzle

[0023] 8. Hot roller 81, hot roller 1, 82, hot roller 2

[0024] 83, hot roller 3 9, winder 10, transmission pipe

[0025] 12. Spinneret 121. Spinneret 1 122. Spinneret 2 DETAILED DESCRIPTION

[0026] In order to clearly and completely describe the purpose and technical solution of the present invention and make its advantages more clearly understood, the following is a further detailed description of the embodiments of the present invention in conjunction with the accompanying drawings. It should be understood that the specific embodiments described herein are only part of the embodiments of the present invention, not all of them, and are only used to explain the embodiments of the present invention and are not intended to limit the embodiments of the present invention. All other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0027] In the description of the present invention, it should be noted that the terms "center," "middle," "upper," "lower," "left," "right," "inner," "outer," "top," "bottom," "side," "vertical," "horizontal," and the like, indicating positions or location relationships, are based on the positions or location relationships shown in the accompanying drawings and are intended only to facilitate the description of the present invention and simplify the description. They are not intended to indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limiting the present invention. Furthermore, the terms "one," "first," "second," "third," "fourth," "fifth," and "sixth" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0028] In the description of this utility model, it should be noted that, unless otherwise expressly specified or limited, the terms "mounted," "connected," and "connected" should be understood in a broad sense. For example, they can refer to fixed connections, detachable connections, or integral connections; mechanical connections, electrical connections; direct connections, indirect connections through an intermediate medium, and internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in this utility model based on the specific circumstances.

[0029] For the purpose of simplicity and illustration, the principles of the embodiments are described primarily with reference to examples. In the following description, many specific details are provided to provide a thorough understanding of the embodiments. However, it will be apparent to those skilled in the art that these embodiments may not be limited to these specific details in practice. In some instances, well-known methods and structures are not described in detail to avoid unnecessarily obscuring the understanding of these embodiments. In addition, all embodiments may be used in combination with each other.

[0030] Example 1:

[0031] like Figure 1 、 24, this embodiment provides a composite simulated fur fiber equipment, which includes: a feeding mechanism, at least two feeding mechanisms are provided, the feeding mechanism also includes a box 3, a material distribution component 5 and a metering pump 4; at least two box bodies 3 are provided, and the two box bodies 3 are arranged adjacent to each other; the material distribution component 5 is arranged in the box body 3, and the material distribution component 5 is provided with a chamber 1 51 and a chamber 2 52, and the chamber 1 51 and the chamber 2 52 are hollow; a spinneret 12 is also provided at the bottom of the material distribution component 5, and the spinneret 12 is tightly engaged with the bottom of the component, and the spinneret 12 also includes a spinneret 1 121 and a spinneret 2 122, and the component cross-sections of the spinneret 1 121 and the spinneret 2 122 are different, and the spinneret 1 121 and the chamber 2 52 are different. One corresponds to chamber 51, and the second spinning part 122 corresponds to chamber 2 52; there are at least two metering pumps 4, which are connected to the material distribution component 5; the first raw material is measured into raw material one and raw material two of different fineness by two metering pumps 4 in a feeding mechanism, and raw material one enters chamber 1 51 through a pipe 6, and then is ejected through the spinning part one 121 at the bottom of chamber 1 51, and raw material two enters chamber two 52 through another pipe 6, and then is ejected through the spinning part two 122 at the bottom of chamber two 52. At the same time, the second raw material is spun through another feeding mechanism. Due to the different component cross-sections of the spinning part one 121 and the spinning part two 122, the fineness cross-sections of the ejected raw material one and raw material two are different.

[0032] Natural fur has a complex structure, and the thickness, shape and density of hair in different parts vary. By setting chamber one 51 and chamber two 52 and setting the hole pattern of spinneret one 121 different from the hole pattern of spinneret two 122 on the spinneret 12, this structure can be better simulated. For example, the hole pattern of spinneret one 121 is larger and regular in shape, and may spray out thicker fiber filaments to simulate the bottom fluff or thicker main hair shaft part in natural fur; the hole pattern of spinneret two 122 is smaller and may have a special shape, so it can spray out thinner fiber filaments with a shape closer to the natural hair tips, so that the simulated fur is closer to real fur in appearance and touch. Moreover, the different specifications of spinneret one 121 and spinneret two 122 will produce different fiber filament shapes. For example, the filament bundles sprayed out by spinneret one 121 are flat, and the filament bundles sprayed out by spinneret two 122 are round. When the two are mixed and woven, a unique texture effect will be formed on the fur surface. Arranging chamber 1 51 and chamber 2 52 on the same material distribution component 5 can simultaneously produce two different types of fiber yarns. Compared with a single chamber structure, the switching time for producing different types of fiber yarns is reduced. When producing a batch of simulated fur with multiple fiber characteristics, there is no need to frequently replace the spinneret 12 or adjust the equipment parameters to switch the production of different types of fiber yarns, thereby achieving the technical effect of being able to simultaneously produce multiple fibers with different fineness cross-sections during the production process.

[0033] like Figure 3 、4 As shown, there are at least two material dividing assemblies 5.

[0034] Each material distribution component 5 is provided with a spinneret 12, and the spinneret 1 121 and the spinneret 2 122 on the spinneret 12 are set to different specifications. For example, the spinneret 1 121 on one material distribution component 5 has a fineness of 30D-150D, a hole number of 3F-24F, a dpf of 5.0-20, and a flat or other special-shaped cross-section; the spinneret 2 122 has a fineness of 30D-150D, a hole number of 3F-24F, a dpf of 5.0-20, and a flat or other special-shaped cross-section; the other component has a fineness of 30D- 200D, number of holes is 24F-72F, dpf is 1.0-5.0, and the cross-section is flat or other special-shaped; the spinneret 2 122 is of fineness 30D-200D, number of holes is 48F-144F, dpf is 0.1-2.0, and the cross-section is circular; this setting enables the equipment to simultaneously produce 2-4 kinds of fiber yarns with different fineness and cross-section, and finally the 4 different fiber yarns are connected to the mesh machine for meshing, thereby achieving a high degree of restoration of the simulated fur and the technical effect of simultaneously producing a variety of fibers with different fineness and cross-section during the production process.

[0035] Example 2:

[0036] like Figure 1 As shown, a screw 2 is provided on the metering pump 4, and the screw 2 is used for melting and filtering the raw materials.

[0037] The raw material is transported to the screw 2 area, and the screw 2 plays a role in pushing the raw material forward during the rotation process. As the raw material continues to move forward along the screw 2, the pitch, diameter and rotation speed of the screw 2 work together to subject the raw material to more intense shearing and extrusion. The shearing action of the screw 2 on the raw material will generate a large amount of heat, which will further increase the temperature of the raw material. In this process, the raw material gradually changes from a solid state to a molten state with fluidity.

[0038] The rotation of screw 22 not only melts the raw materials but also mixes them. In the production of simulated fur fibers, a variety of raw materials or additives may be used. The stirring action of screw 2 allows these ingredients to be evenly mixed in their molten state. This allows the additives to be evenly distributed, resulting in more consistent properties throughout the fiber.

[0039] like Figure 1 As shown, a drying tower 1 is provided on the screw 2 , and the top diameter of the drying tower 1 is larger than the bottom diameter of the drying tower 1 .

[0040] Before entering the drying tower 1, the raw materials of simulated fur may be in different forms, such as granular, powdery or lumpy, and contain a certain amount of moisture. In the drying area, the heating device starts working. When the heat is transferred to the raw materials, the moisture in the raw materials begins to absorb the heat. At the same time, the ventilation system sends dry air into the drying tower 1. The dry air acts as a moisture carrier and can take away the water vapor evaporated from the raw materials. When the two raw materials are conveyed into the drying tower 1, the wider top can provide a larger initial space for the raw materials, so that the raw materials can enter the drying tower 1 more dispersedly. As the drying process proceeds, the raw materials gradually fall and the diameter of the drying tower 1 gradually decreases. This gradual structure allows the raw materials to flow more orderly during the falling process, avoiding the accumulation and blockage of the raw materials, ensuring that each part of the raw materials can fully contact the drying medium, and improving the drying efficiency. The top diameter of the drying tower 1 is larger than the bottom diameter, which helps to form a good airflow circulation. Hot air usually enters the drying tower 1 from the bottom. Due to the larger top diameter, the hot air has a wider space to diffuse during the rising process, can contact the raw materials more evenly, give full play to the heat transfer effect, and take away the moisture in the raw materials. In the area with a smaller bottom diameter, the hot air flow rate is relatively accelerated, forming a certain pressure difference, which prompts the hot air to flow continuously upward, further enhancing the drying effect.

[0041] like Figure 1 As shown, a transmission pipe 10 is provided at one end of the screw 2 , and the other end of the transmission pipe 10 is connected to the metering pump 4 . The transmission pipe 10 is used to transmit the raw materials to the metering pump 4 .

[0042] After being melt-extruded and processed by the screw 2, the raw material is pushed out in a relatively stable state at the end of the screw 2. The inlet of the transmission pipe 10 is tightly connected to the end of the screw 2 to ensure that the raw material can smoothly enter the transmission pipe 10. The inlet usually adopts a well-sealed connection method to prevent raw material leakage and reduce pressure loss. In the transmission pipe 10, the raw material is mainly transmitted by the pressure applied by the screw 2. During the transmission process, the transmission pipe 10 needs to maintain the heat and state of the raw material to a certain extent. If the raw material is in a molten state, the transmission pipe 10 needs to be insulated to prevent the raw material from cooling and solidifying during the transmission process. After being transmitted by the transmission pipe 10, the raw material is finally stably input into the metering pump 4.

[0043] like Figure 1 As shown, the lower end of the box body 3 is provided with an oil nozzle 7, and there are several oil nozzles 7.

[0044] The fiber filaments ejected from the spinneret 12 may be relatively rigid, and the oil ejected from the oil nozzle 7 can penetrate into the internal structure of the fiber filaments. Some components in the oil react with the molecules of the fiber filaments to achieve a "softening" effect, causing the bonding state between the molecular chains of the fiber filaments to change. During the production and movement of the fiber filaments, static electricity is easily generated due to friction and other reasons. The oil in the oil nozzle 7 usually has certain antistatic properties. When the oil adheres to the surface of the fiber filaments, it can form a conductive channel on the surface of the fiber filaments, and conduct the generated static electricity away in time. This can avoid the filaments from being adsorbed and entangled with each other due to static electricity, thereby ensuring that the fiber filaments can be evenly distributed in the subsequent processing process. The oil ejected from the oil nozzle 77 can fill the tiny pores on the surface of the fiber filaments, making the surface of the fiber filaments smoother. The smooth surface can better reflect light, thereby improving the glossiness of the fiber filaments.

[0045] like Figure 1 As shown, a hot roller 8 is provided at the lower end of the oil nozzle 7, and the hot roller 8 also includes: a hot roller 1 81, a hot roller 2 82 and a hot roller 3 83.

[0046] After being ejected from the spinneret 12, the fiber filaments are cooled by side blowing air, and then oiled by the oil nozzle 77. After pre-networking, they reach the hot roller 1 81. The fiber filaments ejected from one of the material distribution components 5 pass through the hot roller 2 82 to reach the network connecting machine, and the fiber filaments ejected from the other material distribution component 5 pass through the hot roller 3 83 to reach the network connecting machine for network connection, and finally reach the winding machine 9 to be wound into shape.

[0047] Example 3:

[0048] This embodiment also provides a method for preparing a composite simulated fur fiber device, comprising the following steps:

[0049] Splitting the materials: the first raw material is conveyed to two metering pumps 4 in one feeding mechanism and metered into raw material one and raw material two of different finenesses respectively; at the same time, the second raw material is conveyed to two metering pumps 4 in another feeding mechanism and metered into raw material three and raw material four of different finenesses respectively;

[0050] Into the cavity, the raw materials 1 and 2 measured in one feeding mechanism enter the material distribution component 5 through two pipes 6, wherein the raw material 1 enters the chamber 1 51 through one pipe 6, and the raw material 2 enters the chamber 2 52 through another pipe 6. At the same time, the raw materials 3 and 4 in the other feeding mechanism enter the material distribution component 5 through two pipes 6, wherein the raw material 3 enters the chamber 1 51 through one pipe 6, and the raw material 4 enters the chamber 2 52 through another pipe 6;

[0051] Spinning, in one feeding mechanism, raw material one and raw material two in chamber one 51 and chamber two 52 are respectively passed through spinneret one 121 and spinneret two 122 to spray out fiber filament one; in another feeding mechanism, raw material three and raw material four in chamber one 51 and chamber two 52 are respectively passed through spinneret one 121 and spinneret two 122 to spray out fiber filament two; since spinneret one 121 and spinneret two 122 are set to different component cross-sections, one spinneret plate 12 can spray out fiber filaments of two different fineness cross-sections; and at least two feeding mechanisms can spray out fiber filaments of four different fineness cross-sections.

[0052] In one feeding mechanism, the present application sets a spinning part 121 and a spinning part 2 122 with different component cross sections on the spinneret 12, and the raw materials 1 and 2 enter the chamber 1 51 and the chamber 2 52 respectively through two pipes 6, and then the fiber 1 is ejected through the spinning part 121 and the spinning part 2 122 at the bottom of the chamber 1 51 and the chamber 2 52. In another feeding mechanism, the raw materials 3 and 4 enter the chamber 1 51 and the chamber 2 52 respectively through two pipes 6, and then pass through the chamber 1 51 and the chamber 2 Fiber filament 2 is ejected from the bottom of the second 52 through the spinning section 1 121 and the spinning section 2 122, wherein the length of the pipeline 6 is set to be the same so that it can reach the spinneret 12 at the same time. Since the cross-sections of the spinning section 1 121 and the spinning section 2 122 components are different, two different fineness cross-sections can be spun in one component. Setting two feeding mechanisms can realize the spinning of four different fineness cross-sections, thereby achieving the technical effect of simultaneously producing multiple fibers with different fineness cross-sections during the production process.

[0053] Transporting: The two raw materials are transported to the drying tower 1, and after passing through two sets of drying towers 1 to remove moisture, they are transported to the screw 2;

[0054] Melting: The two raw materials are melted and extruded into liquid phase by different screws 2, and the corresponding two raw materials then enter the metering pump 4 through their respective transmission pipes 10;

[0055] Metering: The metering pump 4 measures the two raw materials.

[0056] Before separation, the two raw materials are first conveyed to the drying tower 1, where they are dehydrated. The two raw materials are then conveyed to the screw 2, where they are melted and extruded into a liquid state. Finally, the two liquid raw materials enter the metering pump 4, where they are accurately metered. Each link cooperates with each other to ensure high-quality production of fiber yarns.

[0057] Oiling, adjust the oil output of the nozzle 7 according to the type of fiber, adjust the position of the nozzle 7 to ensure that the fiber can pass through the center of the nozzle 7, and make the oil evenly spread on the surface of the fiber;

[0058] Setting, the oiled fiber filaments are transferred to the hot roller 8, and the temperature of the hot roller 8 is set to dry and set the fiber filaments;

[0059] Winding, adjust the tension of the winder 9, control the tension of the fiber filaments during the winding process, so that the fiber filaments are wound tightly and neatly. During the winding process, as the diameter of the package increases, the winding speed needs to be appropriately reduced to maintain the stability of the winding.

[0060] The fiber filaments 1 and 2 coming out of chamber 1 51 and chamber 2 52 in the two feeding mechanisms are transferred to the oil nozzle 7, and oiled by the oil nozzle 7. The fiber filaments 1 and 2 after oiling are shaped by three hot rollers 8. First, the fiber filaments 1 and 2 are transferred to the hot roller 1 81. The fiber filaments 1 in one of the feeding mechanisms pass through the hot roller 2 82 to reach the meshing machine, and the fiber filaments 2 in the other feeding mechanism pass through the hot roller 3 83 to reach the meshing machine. The meshing machine then meshes the fiber filaments 1 and 2 in the two feeding mechanisms to obtain the required fiber filaments. Finally, the meshed fiber filaments are wound into shape, thereby achieving the technical effect of simultaneously producing multiple fibers with different fineness and cross-sections during the production process.

[0061] Although the above describes the illustrative specific implementation methods of the present application so that those skilled in the art can understand the present application, the present application is not limited to the scope of the specific implementation methods. For those of ordinary skill in the art, as long as various changes are within the spirit and scope of the present application defined and determined by the attached claims, all application creations based on the concept of the present application are protected.

Claims

1. A composite simulated fur fiber spinning device, characterized in that: include: Feeding mechanism, wherein at least two types of feeding mechanisms are provided, and the feeding mechanism further comprises: a box body, a material distribution component and a metering pump; There are at least two boxes, and the two boxes are arranged adjacent to each other; At least two metering pumps are provided, and the metering pumps are connected to the material distribution assembly; The material distribution component is arranged in the box body, and the material distribution component is provided with a chamber 1 and a chamber 2, and the chamber 1 and the chamber 2 are hollow; A spinneret is further provided at the bottom of the material distribution component, and the spinneret is tightly engaged with the bottom of the material distribution component. The spinneret also includes a first spinneret part and a second spinneret part. The component cross-sections of the first spinneret part and the second spinneret part are different. The first spinneret part corresponds to the first chamber, and the second spinneret part corresponds to the second chamber. The first type of raw material is metered into raw material one and raw material two of different finenesses through two metering pumps in a feeding mechanism. Raw material one enters chamber one through a pipe and is then ejected through spinneret one at the bottom of chamber one. Raw material two enters chamber two through another pipe and is then ejected through spinneret two at the bottom of chamber two. At the same time, the second type of raw material is spun through another feeding mechanism. The component cross-sections of spinneret one and spinneret two are different, resulting in different fineness cross-sections of the ejected raw material one and raw material two.

2. The composite simulated fur fiber spinning equipment according to claim 1, characterized in that: One metering pump is connected to the first chamber, and the other metering pump is connected to the second chamber. A screw is provided on the metering pump.

3. The composite simulated fur fiber spinning equipment according to claim 2, characterized in that: A drying tower is provided on the screw, and a top diameter of the drying tower is larger than a bottom diameter of the drying tower.

4. The composite simulated fur fiber spinning equipment according to claim 2, characterized in that: A transmission pipe is provided at one end of the screw, and the other end of the transmission pipe is connected to the metering pump. The transmission pipe is used to transmit the raw materials to the metering pump.

5. The composite simulated fur fiber spinning equipment according to claim 1, characterized in that: The lower end of the box body is provided with an oil nozzle, and the oil nozzles are provided in plurality.

6. The composite simulated fur fiber spinning equipment according to claim 5, characterized in that: A hot roller is provided at the lower end of the oil nozzle, and the hot roller further comprises a hot roller 1, a hot roller 2 and a hot roller 3.

7. The composite simulated fur fiber spinning equipment according to claim 1, characterized in that: There are at least two material dividing components.

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