TWM560388U - Device for manufacturing fiber reinforcement composite - Google Patents

Abstract

The main concept of the present disclosure is illustrated. The fiber yarn bundle coated with thermoplastic polymer material is guided to be located between two steel strips which wrap around to each other, and accepts a pattern suppressed by the two strip steels. Then, after performing at least one heating process and at least one cooling process, and detaching the two steel strips, the fiber reinforcement composite capable of rolling up is obtained. Accordingly, the fiber reinforcement composite of the reinforcement cloth type or the reinforcement yarn bundle type can be generated, thus the equipment establishment cost can be reduced, and the positive and reliable means can be utilized to increase the industrial competitiveness.

Description

Fiber reinforced composite material manufacturing equipment

This creation is related to the fiber-reinforced composite material manufacturing technology, and aims to provide a fiber-reinforced composite material manufacturing equipment that can be used to produce reinforcing cloth type or reinforcing yarn bundle type.

Composites (Polymeric Composite) are widely used in aerospace industry, automotive industry, shipbuilding industry, medical and sports equipment due to their high strength, high stiffness, light weight, corrosion resistance and wear resistance. A wide variety of products, the most widely used, is a fiber-reinforced composite material (hereinafter referred to as fiber-reinforced composite material), and its basic composition is fiber and polymer substrate.

Furthermore, fiber-reinforced composite materials are currently the most commonly used forms for the manufacture of high-performance composite materials, which are mainly composed of a series of fiber yarn bundles (carbon, glass fiber) impregnated resins; The process for producing fiber-reinforced composite materials is usually carried out by means of melt impregnation or powder impregnation.

Among them, the melt impregnation method firstly distributes the bundles of fiber yarns of different amounts, and simultaneously heats the resin and applies it to the upper and lower release papers, and then introduces the bundle of the fiber yarns after the yarn is introduced onto the resin coated layer. Between the lower release papers, the rollers are directly applied to the upper and lower release papers to pressurize the fibers, so that the fibers between the upper and lower release papers are impregnated with the resin, and finally cooled or dried to be shaped.

As for the powder impregnation method, after the fiber yarn bundle is finished, the plastic powder is electrostatically sprayed by a continuous impregnation machine, and the whole bundle of the fiber bundle after the yarn is placed is placed at the feeding end of the continuous impregnation machine and fixed at the rear. At the material end, the whole fiber bundle is driven by the baking process of the oven with the rotation speed of the receiving end, and the plastic powder is melted and coated on the surface of the fiber due to heat.

Since the above two continuous processes for manufacturing a fiber-reinforced composite material method combine the fiber and the resin in different ways, there is a conventional device capable of manufacturing a fiber-reinforced composite material in a continuous process, and can usually only be used to produce a prepreg type. The product (melt impregnation method), or the product that can only be used to produce pre-impregnated yarn bundle type (powder impregnation method), has caused the related industry to gradually lose its industrial competitiveness due to the huge equipment construction cost.

In view of this, the present invention provides a fiber-reinforced composite material manufacturing apparatus that can be used to reinforce the type of cloth or the type of reinforcing yarn bundle, and its main purpose.

The fiber reinforced composite material manufacturing equipment of the present invention comprises: a yarn draping unit for performing the yarn application on the plurality of fiber yarn bundles, and the fiber yarn bundles for the yarns are coated with the thermoplastic polymer a processing process for a material; a press-fit unit having two relatively rewinding steel strips, at least one heating unit and at least one cooling unit being provided at the winding stroke of the two steel strips for execution of the coatings The fiber bundle of the thermoplastic polymer material is pressed into the shape of the two steel strips, and is separated from the two steel strips by at least one heating process and at least one cooling process to become a fiber-reinforced composite material that can be wound up. Processing process.

According to the above technical feature, the fiber reinforced composite material manufacturing apparatus further includes a winding unit for winding the fiber reinforced composite material passing through the nip unit.

According to the above technical feature, the yarn draping unit is provided with a creel for placing the fiber bundles in a roll form, and a immersion tank for containing the thermoplastic polymer material; the impregnation tank or powder system A box for passing the bundle of fiber yarns is provided, and a plurality of tension rollers are disposed in the box body.

According to the above technical feature, the yarn spreading unit is provided with a drying unit between the creel and the impregnation tank.

According to the above technical feature, the press unit is provided with a machine table, and two correspondingly disposed steel strip rollers are arranged at both ends of the machine stand, and two steel strip rollers for driving one end of the machine table are oppositely provided. A rotating drive unit, each of which is wound around a strip of steel on both ends of the machine.

According to the above technical feature, each heating unit is provided with a heating base, and the heating base is provided with at least one heater and a plurality of first pressure rollers for contacting the steel strips to which they belong; each of the cooling units is provided with a Cooling the base, the cooling base is provided with at least one cooler and a plurality of second pressure rollers for contacting the steel strip to which it belongs; the heating unit and the cooling unit to which the at least one steel belt belongs are attached to the heating base A power cylinder connected to the machine is respectively disposed on the seat and the cooling base.

According to the above technical feature, the pressing unit is provided with a preheating unit between the machine table and the yarn spreading unit.

According to the above technical features, each of the heaters is represented by a structure of an infrared lamp; each of the coolers is represented by a structure of a cooling pipe connected to the uniform cooling system.

According to the above technical feature, the yarn draping unit is provided with a creel for placing the fiber bundles in a roll form, and a immersion tank for containing the thermoplastic polymer material; the impregnation tank is provided with a a box for passing the bundle of fiber yarns, wherein a plurality of tension rollers are arranged in the box body; the press unit is provided with a machine table, and two correspondingly disposed steel belt rollers are arranged at both ends of the machine table. There is further provided a driving unit for driving the two steel belt rollers at one end of the machine to rotate relative to each other, and each of the steel belts is respectively wound around the steel belt rollers at both ends of the machine.

According to the above technical feature, each heating unit is provided with a heating base, and the heating base is provided with at least one heater and a plurality of first pressure rollers for contacting the steel strips to which they belong; each of the cooling units is provided with a Cooling the base, the cooling base is provided with at least one cooler and a plurality of second pressure rollers for contacting the steel strip to which it belongs; the heating unit and the cooling unit to which the at least one steel belt belongs are attached to the heating base A power cylinder connected to the machine is respectively disposed on the seat and the cooling base.

According to the above technical feature, the yarn spreading unit is provided with a drying unit between the creel and the impregnation tank.

According to the above technical feature, the pressing unit is provided with a preheating unit between the machine table and the yarn spreading unit.

According to the above technical feature, the yarn spreading unit is provided with a drying unit between the creel and the impregnation tank; the pressing unit is provided between the machine table and the yarn draping unit. Thermal unit.

According to the above technical features, each of the heaters is represented by a structure of an infrared lamp; each of the coolers is represented by a structure of a cooling pipe connected to the uniform cooling system.

The present invention mainly guides a bundle of fiber yarns coated with a thermoplastic polymer material between two relatively rewinding steel strips, so that it is pressed by two steel strips, through at least one heating process and at least one cooling process. The thermoplastic polymer material is separated from the two steel strips by the combination of the fibers of the fiber bundle by the rapid heat and quenching; the fiber reinforced composite material of the type of reinforcing cloth or the type of the reinforcing yarn can be used to greatly reduce the cost of equipment construction. Relatively more active and reliable means to enhance industrial competitiveness.

The method for manufacturing a fiber-reinforced composite material of the present invention comprises at least: coating a plurality of thermoplastic polymer materials with a plurality of fiber yarn bundles, and then guiding the fiber bundles coated with the thermoplastic polymer material. Entering between two relatively rewinding steel strips, and causing the fiber bundles coated with the thermoplastic polymer material to receive the two steel strips pressed, after at least one heating process and at least one cooling process It is separated from the two steel strips and becomes a fiber-reinforced composite material that can be wound up.

According to the above technical feature, the bundle of the fiber bundles coated with the thermoplastic polymer material enters the two steel strips in an aligned manner in which the thermoplastic polymer material adjacent to the bundle of the fiber bundles is in contact with each other. between.

According to the above technical feature, the fiber bundles coated with the thermoplastic polymer material enter between the two steel strips in an aligned manner in which the thermoplastic polymer material between adjacent fiber bundles does not form a contact. .

According to the above technical features, the fiber bundles coated with the thermoplastic polymer material, wherein the thermoplastic polymer material is presented as a film, and is guided between the two steel strips, and the coatings are The fiber bundle of the thermoplastic polymer material is adjacent to the fiber bundle, and the lower cladding type is sandwiched between the thermoplastic polymer materials, so that the fiber is further processed after the heating process and the cooling process. The thermoplastic polymer material is attached to the surface of the reinforcing composite material.

According to the above technical feature, the fiber reinforced composite material manufacturing method is characterized in that the fiber yarn bundle obtained by the plurality of yarns is coated with the thermoplastic polymer material through an impregnation process.

According to the above technical features, the thermoplastic polymer material is sprayed directly onto the fiber bundle in a powder form.

According to the above technical feature, the fiber reinforced composite material manufacturing method is characterized in that at least one drying process is performed on the fiber yarn bundles before the fiber yarn bundles are coated with the thermoplastic polymer material.

According to the above technical feature, the fiber reinforced composite material manufacturing method is characterized in that at least one preheating process is applied to the fiber yarn bundles before the fiber yarn bundles coated with the thermoplastic polymer material enter the two steel strips. .

According to the above technical feature, the fiber reinforced composite material manufacturing method is characterized in that at least one drying process is applied to the fiber yarn bundles before the fiber yarn bundles are coated with the thermoplastic polymer material; Before the fiber bundles of the thermoplastic polymer material enter the two steel strips, the fiber bundles are subjected to at least one preheating process.

According to the above technical features, the fiber yarn bundles may be selected as one of a carbon fiber yarn bundle or a glass fiber yarn bundle.

According to the above technical features, the thermoplastic polymer material can be selected from one of a plastic powder, a resin or a polymer film.

The present invention mainly provides a fiber reinforced composite material manufacturing equipment and a related fiber reinforced composite material manufacturing method which can be used to reinforce the cloth type or the reinforcing yarn bundle type.

As shown in FIG. 1A, the fiber reinforced composite material manufacturing method of the present invention is characterized in that a plurality of fiber yarn bundles 11 completed by a plurality of yarns are coated with a plurality of thermoplastic polymer materials 12, and then coated with a thermoplastic polymer material 12 The fiber bundle 11 is guided between two relatively rewinding steel strips 21, 22, and the fiber bundles 11 coated with the thermoplastic polymer material 12 are pressed to receive the two steel strips 21, 22. State, after the at least one heating process (the process performed by the heating unit 23 as shown in the figure) and the at least one cooling process (the process performed by the cooling unit 24 as shown in the figure) and the two steel strips 21, 22 Disengaged, it becomes a fiber-reinforced composite material 10 that can be wound up.

In the present invention, the fiber bundle 11 can be selected as one of a carbon fiber bundle or a glass fiber bundle; as for the thermoplastic polymer material 12, the plastic polymer material 12 can be selected as a plastic. One of powder, resin or polymer film.

Since the fiber reinforced composite material manufacturing method of the present invention is applied to the fiber yarn bundle 11 coated with the thermoplastic polymer material 12 by a heating process and a cooling process, the two steel strips 21 and 22 are evenly distributed. Pressure is applied to the fiber bundles 11 coated with the thermoplastic polymer material 12, and the two steel strips 21, 22 are rewound to allow the fiber bundle 11 coated with the thermoplastic polymer material 12 to be stably heated. Process and cooling process.

Therefore, the fiber reinforced composite material 10 can be manufactured in a continuous process, and the heat transfer characteristics of the steel strips 21 and 22 can be utilized to cause the fiber bundles 11 coated with the thermoplastic polymer material 12 to pass through a heating process and a cooling process. The heat-treating and quenching heat treatment effect makes the fiber-reinforced composite material 10 yarn bundles straight after forming, the appearance is relatively flat, and the effect of the thermoplastic polymer material is relatively good.

That is, in the production method of the fiber-reinforced composite material of the present invention, the thermoplastic polymer material 12 is coated with the thermoplastic polymer material 12 as shown in FIG. 1B, and is directly sprayed on the fiber yarn bundle 11 in a powder form. The arrangement between the two steel strips 21 and 22 can be made by the arrangement of the thermoplastic polymer material 12 between the adjacent fiber bundles 11 to form a prepreg type after passing through the heating process and the cooling process. Fiber reinforced composite material 10.

Moreover, in the production method of the fiber-reinforced composite material of the present invention, the fiber bundles 11 coated with the thermoplastic polymer material 12 can be made of the thermoplastic polymer material 12 between the adjacent fiber bundles 11 The arrangement pattern constituting the contact enters between the two steel strips 21, 22, so that after passing through the heating process and the cooling process, the fiber-reinforced composite material 10 of the prepreg type is obtained.

Furthermore, the fiber reinforced composite material manufacturing method of the present invention may be implemented as shown in FIG. 2, and the fiber bundles 11 coated with the thermoplastic polymer material 12, wherein the thermoplastic polymer material 12 is a film. Presented in a manner, and guided between the two steel strips 21, 22, the fiber bundles 11 coated with the thermoplastic polymer material 12, and the adjacent fiber bundles 11 above and below The thermoplastic polymer material 12 is adhered to the surface of the fiber-reinforced composite material 10 after being passed through the heating process and the cooling process.

The fiber reinforced composite material manufacturing method of the present invention can be coated with the thermoplastic polymer material 12 through the impregnation tank process through the impregnation tank process; or Before the fiber bundles 11 are coated with the thermoplastic polymer material 12, the fiber bundles 11 are subjected to at least one drying process to remove excess moisture; or, the thermoplastic polymer materials may be coated thereon. Before the fiber bundles 11 of 12 enter the two steel strips 21, 22, at least one preheating process is applied to the fiber bundles 11 to shorten the working time of the heating process.

Of course, the fiber reinforced composite material manufacturing method of the present invention, in the above various possible implementation manners, applies the fiber yarn bundles 11 before the fiber yarn bundles 11 are coated with the thermoplastic polymer material 12. At least one preheating process is performed on the fiber bundles 11 by at least one drying process and before the fiber bundles 11 coated with the thermoplastic polymer material 12 enter the two steel strips 21, 22. good.

Please also refer to Fig. 3, the fiber reinforced composite material manufacturing equipment of the present invention basically comprises: a yarn spreading unit 30, and a pressing unit 20; wherein:

The yarn draping unit 30 is configured to perform a process of applying a yarn to the plurality of fiber yarn bundles 11 and coating the fiber yarn bundles 11 of the yarns with the thermoplastic polymer material 12.

The press unit 20 is provided with two relatively rewinding steel strips 21, 22, and at least one heating unit 23 and at least one cooling unit 24 are provided at the winding stroke of the two steel strips 21, 22 for performing The fiber bundles 11 coated with the thermoplastic polymer material 12 are pressed into the form of the two steel strips 21, 22, and the two steel strips 21 are passed through at least one heating process and at least one cooling process. 22 is detached, and becomes a processing process of the fiber-reinforced composite material 10 that can be wound up.

In the fiber reinforced composite material manufacturing equipment of the present invention, in the implementation, the two steel strips 21 and 22 are arranged in a horizontally extending manner, and the fiber reinforced manufacturing equipment may further include a pass through the nip unit 20 The fiber reinforced composite material 10 is wound up by the winding unit 40.

Please refer to FIG. 1A and FIG. 4 together, the yarn covering unit 30 is provided with a creel 31 for placing the fiber bundles 11 in a roll form, and a thermoplastic polymer for holding the yarn. The impregnation tank 32 of the material 12; the impregnation tank 32 is provided with a casing 321 through which the fiber bundles 11 pass, and a plurality of tension rollers 322 are disposed in the casing 321 .

In the fiber reinforced composite material manufacturing equipment of the present invention, in the operation, a plurality of bundles of the bundle of the fiber yarns 11 are placed on the creel 31, and the fiber bundles 11 on the yam 31 are passed around the impregnation tank 32. The tension roller 322 then enters between the two steel strips 21, 22 of the press unit 20, and finally is fixed to the winding 40, and the yarn tension of the fiber bundle 11 and the specification of the product can be adjusted.

Therefore, the tow of the winding unit 40 can be used to cooperate with the rewinding of the two steel strips 21, 22 of the press unit 20, so that the fiber bundle 11 on the creel 31 can be continuously passed through the yarn at a stable speed. And coating the thermoplastic polymer material 12, and processing processes such as heating and cooling; in particular, when the heating and cooling processes are performed, the two steel strips 21 and 22 of the press unit 20 can be used for making the clip. The pressing force is evenly distributed, and continuously provides a stable and reliable pressing force, so that the formed fiber reinforced composite material 10 yarn bundle is straight, the appearance is relatively flat, and the impregnation effect of the thermoplastic polymer material is relatively good.

Furthermore, in the fiber reinforced composite material manufacturing apparatus of the present invention, the yarn draping unit 30 is further provided with a drying unit 33 between the creel 31 and the immersion tank 32. Before the fiber bundles 11 are coated with the thermoplastic polymer material 12, the fiber bundles 11 are subjected to at least one drying process to remove excess moisture.

And the press unit 20 is provided with a machine table 25, and two correspondingly disposed steel belt rollers 251 are disposed at two ends of the machine base 25, and another two steels for driving one end of the machine base 25 are provided. The driving unit 26 with the drum 251 is relatively rotated, and the steel belts 21 and 22 are respectively wound on the steel belt rollers 251 at the two ends of the machine table 25. The steel belt roller 251 can be a hot pressing roller and can have a high temperature. The way to apply pressure and heat directly to the surface of the fiber that it contacts the reinforcing composite 10.

Referring to FIG. 1A, FIG. 3 and FIG. 4 together, each heating unit 23 is provided with a heating base 231, and the heating base 231 is provided with at least one heater 232 and a plurality thereof for the same. a first pressure roller 233 contacting the steel strip 21 (or the steel strip 22); each of the cooling units 24 is provided with a cooling base 241, and the cooling base 241 is provided with at least one cooler 242 and a plurality thereof a second pressurizing roller 243 that is in contact with the steel strip 21 (or the steel strip 22); each of the heaters 232 can be embodied in the form of an infrared light tube; each of the coolers 242 can be connected to the uniform cooling system 245. The structural form of the cooling tube is presented.

And the heating unit 23 and the cooling unit 24 to which the at least one of the steel strips 21, 22 (the steel strip 21 located above is shown) may further be on the heating base 231 and the cooling base 241. There is respectively provided a power cylinder 234, 244 connected to the machine base 25; accordingly, the pressing force between the two steel strips 21, 22 can be adjusted through the power cylinders 234, 244 according to the type or specification requirements of the product, and even Adjust the power of the heating process or cooling process.

Similarly, the nip unit 20 can further provide a preheating unit 27 between the machine table 25 and the yarn draping unit 30, and the fiber yarn bundles coated with the thermoplastic polymer material 12 can be disposed. Before entering the two steel strips 21, 22, the fiber bundles 11 are subjected to at least one preheating process to shorten the working time of the heating process.

The fiber reinforced composite material manufacturing apparatus of the present invention is implemented as follows, the yarn draping unit 30 is provided with a creel 31 for placing the fiber yarn bundles 11 in a roll form. And a immersion tank 32 for containing the thermoplastic polymer material 12; the immersion tank 32 is provided with a box 321 through which the fiber bundles 11 pass, and a plurality of tension rollers 322 are disposed in the box 321 .

And the press unit 20 is provided with a machine table 25, two correspondingly disposed steel strip rollers 251 are disposed at two ends of the machine base 25, and two steel strips for driving one end of the machine base 25 are further provided. Preferably, the driving unit 26 of the drum 251 is relatively rotated, and each of the steel strips 21, 22 is preferably wound around the strip drum 251 at both ends of the machine table 25.

In this embodiment, each heating unit 23 is provided with a heating base 231, and the heating base 231 is provided with at least one heater 232 and a plurality of contacts for the steel strip 21 (or the steel strip 22) to which it belongs. The first pressure roller 233; each of the cooling units 24 is provided with a cooling base 241, and the cooling base 241 is provided with at least one cooler 242 and a plurality of contacts for the steel strip 21 (or the steel strip 22) to which it belongs. a second pressurizing roller 243; the heating unit 23 and the cooling unit 24 to which the at least one of the steel strips 21, 22 (the steel strip 21 located above is shown) may further be heated by the heating base 231 and the cooling unit A power cylinder 234, 244 connected to the machine base 25 is respectively disposed on the base 241.

Similarly, in this embodiment, each of the heaters 232 can also be represented by a structure of an infrared lamp; each of the coolers 242 can be represented by a structure of a cooling pipe connected to the uniform cooling system 245; The yarn draping unit 30 is provided with a drying unit 33 between the creel 31 and the immersion tank 32. Alternatively, the squeezing unit 20 can be used in the machine table 25 and the yarn draping unit 30. A preheating unit 27 is provided between them.

Of course, in this embodiment, the drying unit 33 can be disposed between the creel 31 and the impregnation tank 32, and the pressing unit 20 can be disposed on the machine. It is preferable that the structure of the preheating unit 27 is provided between the table 25 and the yarn covering unit 30.

Compared with the conventional technology, the present invention mainly guides the fiber bundle coated with the thermoplastic polymer material between two relatively rewinding steel strips, so that it accepts two steel strips, and passes at least one The heating process and the at least one cooling process, the thermoplastic polymer material is combined with the fibers of the fiber bundle by the rapid heat and quenching, and then separated from the two steel strips; the crucible can be used to reinforce the cloth type or the reinforcing yarn type of the fiber reinforcing composite material, Reduce equipment construction costs and increase industrial competitiveness with relatively more active and reliable means.

The embodiments described above are only for explaining the technical idea and characteristics of the present invention, and the purpose thereof is to enable those skilled in the art to understand the contents of the present invention and implement them according to the scope of the patent. That is, the equivalent changes or modifications made by the people in accordance with the spirit revealed by this creation should still be covered by the scope of the patent of this creation.

10‧‧‧Fiber reinforced composite
11‧‧‧Fiber yarn bundle
12‧‧‧ thermoplastic polymer materials
20‧‧‧Compression unit
21‧‧‧ steel strip
22‧‧‧ steel strip
23‧‧‧heating unit
231‧‧‧heated base
232‧‧‧heater
233‧‧‧First pressure roller
234‧‧‧Power cylinder
24‧‧‧Cooling unit
241‧‧‧ Cooling base
242‧‧‧cooler
243‧‧‧Second pressure roller
244‧‧‧Power cylinder
245‧‧‧ Refrigeration system
25‧‧‧ machine
251‧‧‧Steel belt roller
26‧‧‧ drive unit
27‧‧‧Preheating unit
30‧‧‧ yarn covering unit
31‧‧‧ creel
32‧‧‧Immersion tank
321‧‧‧ cabinet
322‧‧‧Tensile roller
33‧‧‧Drying unit
40‧‧‧Winding unit

Figure 1A is a schematic diagram of the operation of the first method for fabricating a fiber-reinforced composite material. Fig. 1B is a schematic view showing the operation of the method for manufacturing the fiber-reinforced composite material of the second embodiment of the present invention. The second figure is a schematic diagram of the operation of the third embodiment of the fiber reinforced composite material manufacturing method. The third figure is the appearance structure diagram of the fiber-reinforced composite material manufacturing equipment of the present creation. Figure 4 is a schematic diagram of the structure of the heating unit and cooling unit in the creation.

Claims (15)

A fiber reinforced composite material manufacturing apparatus, comprising: a yarn draping unit for performing a processing process of applying a yarn to a plurality of fiber yarn bundles, and coating the plurality of thermoplastic polymer materials for the fiber yarn bundles of the yarns a pressing unit having two relatively rewinding steel strips, at least one heating unit and at least one cooling unit being disposed at the winding stroke of the two steel strips for execution of the thermoplastic polymer The fiber yarn bundle of the material is subjected to the pressing mode of the two steel strips, and is separated from the two steel strips by at least one heating process and at least one cooling process, and becomes a processing process of the fiber-reinforced composite material that can be wound up. The fiber reinforced composite material manufacturing apparatus according to claim 1, wherein the fiber reinforced composite material manufacturing apparatus further comprises a winding unit for winding the fiber reinforced composite material through the nip unit. The fiber reinforced composite material manufacturing apparatus according to claim 1 or 2, wherein the yarn draping unit is provided with a creel for the fiber yarn bundles to be placed in a roll shape, and a high temperature for holding the thermoplastic yarn The impregnation tank of the molecular material; the impregnation tank is provided with a box through which the fiber bundles pass, and a plurality of tension rollers are arranged in the box body. The fiber-reinforced composite material manufacturing apparatus according to claim 3, wherein the yarn-drawing unit is provided with a drying unit between the creel and the impregnation tank. The fiber-reinforced composite material manufacturing apparatus according to claim 1 or 2, wherein the pressing unit is provided with a machine table, and two correspondingly disposed steel belt rollers are disposed at both ends of the machine table, and another driving device is provided. The driving unit of the two steel belt rollers at one end of the machine is relatively rotated, and each of the steel belts is respectively wound on the steel belt drum at both ends of the machine. The fiber-reinforced composite material manufacturing apparatus according to claim 5, wherein each of the heating units is provided with a heating base, and the heating base is provided with at least one heater and a plurality of first contacts for the steel strip to which it belongs. a cooling drum; each of the cooling units is provided with a cooling base, and the cooling base is provided with at least one cooler and a plurality of second pressing rollers for contacting the steel strip to which the steel strip belongs; the at least one of the steel strips belongs to The heating unit and the cooling unit are respectively provided with a power cylinder connected to the heating base and the cooling base. The fiber reinforced composite material manufacturing apparatus according to claim 5, wherein the nip unit is provided with a preheating unit between the machine table and the yarn draping unit. The fiber-reinforced composite material manufacturing apparatus according to claim 7, wherein each of the heaters is represented by a structure of an infrared lamp; each of the coolers is represented by a structure of a cooling pipe connected to the uniform cooling system. The fiber reinforced composite material manufacturing apparatus according to claim 1 or 2, wherein the yarn draping unit is provided with a creel for the fiber yarn bundles to be placed in a roll shape, and a high temperature for holding the thermoplastic yarn a dip tank of molecular material; the impregnation tank is provided with a box through which the fiber bundles pass, and a plurality of tension rollers are disposed in the box body, and two corresponding walls of the box body are provided with a plurality of grooves, each of which The tension roller is mounted between the corresponding grooves in a shape adjustable to the relative position of the box; the pressing unit is provided with a machine, and two corresponding ends are provided at the two ends of the machine The steel strip roller is disposed, and a driving unit for driving the two steel strip rollers at one end of the machine is relatively rotated, and each of the steel strips is respectively wound on the strip drum at both ends of the machine. The fiber-reinforced composite material manufacturing apparatus according to claim 9, wherein each of the heating units is provided with a heating base, and the heating base is provided with at least one heater and a plurality of first contacts for contacting the steel strip to which it belongs. a cooling drum; each of the cooling units is provided with a cooling base, and the cooling base is provided with at least one cooler and a plurality of second pressing rollers for contacting the steel strip to which the steel strip belongs; the at least one of the steel strips The heating unit and the cooling unit belong to the heating base and the cooling base, respectively, and a power cylinder connected to the machine. The fiber-reinforced composite material manufacturing apparatus according to claim 9, wherein the yarn-drawing unit is provided with a drying unit between the creel and the impregnation tank. The fiber reinforced composite material manufacturing apparatus according to claim 9, wherein the nip unit is provided with a preheating unit between the machine table and the yarn draping unit. The fiber-reinforced composite material manufacturing apparatus according to claim 9, wherein the yarn-drawing unit is provided with a drying unit between the creel and the impregnation tank; the pressing unit is attached to the machine A preheating unit is arranged between the yarn covering units. The fiber-reinforced composite material manufacturing apparatus according to claim 10, wherein each of the heaters is represented by a structure of an infrared lamp; each of the coolers is represented by a structure of a cooling pipe connected to the uniform cooling system. The fiber reinforced composite material manufacturing apparatus according to claim 5, wherein the steel belt drum is a hot press roller.