An ABS material processing granulator

Abstract

The application relates to the ABS material processing technical field and discloses an ABS material processing granulator, which comprises an extruder, a feeding port for injecting molten material is arranged above the extruder, a fixed die set is connected to the end of the extruder, model holes for extruding wires are arranged on the surface of the fixed die set, a water tank is arranged on the side of the fixed die set away from the extruder, and a motor assembly is arranged on the side of the water tank. Through the arrangement of the water containing assembly and the piston assembly, the motor assembly drives the rotating assembly to rotate, then the compressed area is connected with the inside of the water containing box through the outflow pipe to introduce cooling water, the water flow directly flows from the water flow head to the top of the wire and forms a continuous water film on the surface of the wire, the cooling water flows to the surface of the wire at the moment of wire extrusion, and the water flow continuously flows to cool and lower the temperature of the surface of the wire.

Description

TECHNICAL FIELD

[0001] The application relates to the ABS material technology field, in particular to an ABS material processing granulator. BACKGROUND

[0002] Before use, the ABS material needs to be made into granular by a granulator set so as to facilitate the uniformity of subsequent melting injection of the ABS material, and in the granulating process, the granulator set puts the ABS raw material into a smelting machine, the smelting machine melts the material, and then the material is extruded from a round hole die through an extruder, so that the ABS material is in a strip shape, the strip-shaped ABS material is cooled through a water tank, and finally the strip-shaped ABS material is cut into short granular by a cutting machine.

[0003] The material just extruded from the extrusion die has a high temperature and is not cooled and shaped before entering the water tank, so the strip-shaped material cannot contact each other or other structures after being extruded and before being cooled in the water tank, otherwise the adhesion between the wires will be caused, and the cutting and granulating process will be affected, but the spacing between the extruded strip-shaped materials will change in the process of moving the wire to the water tank, the spacing between the wires is not uniform after entering the water tank, the wires are stacked with each other in the process of cooling and transmission in the water tank, the process of removing the surface cooling water of the subsequent strip-shaped material is affected, the drying degree of the material granules is reduced, and the utilization process is affected; meanwhile, the extruded wire needs to move transversely and cool after entering the water tank, the moving and cooling efficiency is low, the length of the water tank needs to be long, and the transmission distance of the strip-shaped material in the water tank is longer, so that the strip-shaped material is moved again and the neatness is reduced. SUMMARY

[0004] The application provides an ABS material processing granulator, which has the advantages of neat arrangement of the extruded wires and uniform cutting of the granules, and solves the problems of uneven cutting and low cooling efficiency caused by close arrangement of the wires.

[0005] To achieve the above object, the application adopts the following technical scheme: an ABS material processing granulator, which comprises an extruder, a feeding port for injecting molten material is arranged above the extruder, a fixed die set is connected to the end of the extruder, a model hole for extruding wires is arranged on the surface of the fixed die set, a water tank is arranged on the side of the fixed die set away from the extruder, a motor assembly is arranged on the side of the water tank, the motor assembly drives a rotating assembly inside the water tank through a belt, a water collecting pool is arranged between the fixed die set and the water tank, a piston assembly is arranged on the two sides of the water collecting pool, a water containing assembly is arranged above the model hole on the surface of the fixed die set, the rotating assembly comprises a rotating shaft inside the water tank for assisting in arranging the wires, the end of the rotating shaft extending out of the water tank is connected to a rotating disc, and the outer side of the circular surface of the rotating disc is connected to a rotating block rotating with the rotating disc.

[0006] Further, the piston assembly comprises a piston cylinder, an inner side of the piston cylinder is slidably connected with a piston body, an end of the piston body extends to the direction of the rotating assembly and is hingedly connected with a transmission rod, an end of the transmission rod away from the piston body is sleeved on an outer side of the rotating block, the piston body is a piston with a cross section in the shape of a T letter, an inner side of the piston cylinder is divided into two areas by a piston head of the piston body, the two areas in the inner side of the piston cylinder are both communicated with outflow pipes, the two areas in the inner side of the piston cylinder are both communicated with inflow pipes, the water containing assembly comprises a water containing box for storing water, a bottom end of the water containing box is equidistantly communicated with water flow heads obliquely towards above the wire, one of the piston assemblies is located at one side of the water collecting pool, one end of the outflow pipe communicated with an outer side of the piston assembly away from the piston assembly is communicated with an inner side of the water containing box, and one end of the inflow pipe communicated with the outer side of the piston assembly away from the piston assembly is communicated with an inner side of the sink, the outflow pipe is a one-way water pipeline from the inner side of the piston cylinder to the inner side of the water containing box, and the inflow pipe is a one-way water pipeline from the inner side of the sink to the inner side of the piston cylinder.

[0007] Further, a top end of the water collecting pool is provided with a wire arranging assembly, the wire arranging assembly comprises a wire arranging plate, an inner side of the wire arranging plate has a cavity for storing air, a surface of the wire arranging plate is equidistantly provided with wire arranging holes, inner sides of the wire arranging holes are equiangularly and circumferentially provided with air blowing channels for communicating between the inner side of the cavity of the wire arranging plate and an outer side of the wire arranging plate, the wire passes through the middle of the wire arranging hole after being extruded by the model hole of the fixing module, one of the piston assemblies is located at the other side of the water collecting pool, one end of the outflow pipe communicated with an outer side of the piston assembly away from the piston assembly is communicated with the inner side cavity of the wire arranging plate, and one end of the inflow pipe communicated with the outer side of the piston assembly away from the piston assembly is communicated with an external environment, the inflow pipe is a one-way air pipeline from the inner side of the piston cylinder to the inner side of the wire arranging plate, and the inflow pipe is a one-way air pipeline from the external environment to the inner side of the piston cylinder.

[0008] Further, an outer side of the water collecting pool is connected with a drain valve, so as to keep the water level in the inner side of the water collecting pool constant.

[0009] Further, the air blowing channel is in the shape of a cylinder which is inclined to the direction in which the wire moves away from the end of the wire arranging hole.

[0010] Further, the part where the piston body is slidably connected with the inner wall of the piston cylinder is slidably sealed.

[0011] Further, the end of the inflow pipe located in the inner side of the sink is located below the liquid level of the cooling water.

[0012] Further, the direction where the axis of the water flow head is located is the same as the direction of the axis of the section where the wire moves to the sink after being extruded by the fixing module, after the cooling water flows out of the top end of the wire through the water flow head, the cooling water forms a water film on the surface of the wire.

[0013] Further, the part of the flat wire plate through which the wire passes is perpendicular to the axis of the wire, and the circumferential air blowing channel blows air uniformly to the outside of the wire passing through the wire arranging hole.

[0014] The beneficial effects of the present application are that by providing the water containing assembly and the piston assembly, when the motor assembly drives the rotating assembly to rotate, the rotating block connected to the rotating disc directly drives the transmission rod to move, the transmission rod pulls the piston body inside the piston cylinder to move transversely and reciprocally, the piston body expands and shrinks the two areas inside the piston cylinder, when one area inside the piston cylinder expands, the area inside the piston cylinder sucks cooling water from the inside of the sink through the inflow pipe, and the other area inside the piston cylinder is compressed, and then the compressed area introduces cooling water into the inside of the water containing box through the outflow pipe, so that the water flow directly flows from the water flow head to the upper side of the wire and forms a continuous water film on the surface of the wire, the cooling water flows to the surface of the wire at the moment of extrusion, the water flow continuously flows to cool the surface of the wire, the wire is pre-cooled before entering the sink, the surface of the wire is quickly cooled to be stable, and then the rotating assembly is in contact with the outside of the wire, the wire is more orderly arranged after being in contact with the rotating assembly, and the subsequent pelletizing process is facilitated.

[0015] By providing the wire arranging assembly, the wire is cooled by the cooling water sprayed by the water flow head, the wire passes through the middle part of the wire arranging hole, and then air is continuously blown out to the outside of the wire through the air blowing channel, so that the surface of the wire is not in contact with the inner wall of the wire arranging hole, the wire arranging process is performed through the wire arranging hole, the wires are more orderly arranged, and the air flow blown out by the air blowing channel breaks the water film formed on the surface of the wire, so that the water that has exchanged heat with the surface of the wire directly flows vertically downward due to the action of the air flow and is collected by the water collecting pool below, and the surface of the wire exposed to the air flow is subjected to air cooling, so that air cooling and water cooling are simultaneously performed, the cooling and forming of the wire are accelerated, the length of the sink can be reduced, the orderliness of the wire in the moving cooling process is improved, the pelletizing process of the wire is facilitated, the orderliness of the particle size of the finished product is ensured, and the quality of the finished product is improved. BRIEF DESCRIPTION OF DRAWINGS

[0016] The accompanying drawings, which constitute a part of this specification, illustrate embodiments of the present application and serve to explain the principles of the present application.

[0017] Referring to the drawings, the present application can be more clearly understood in light of the following detailed description, in which:

[0018] Figure 1 is a three-dimensional structural schematic view of the present application;

[0019] Figure 2 is a structural front view of the piston assembly of the present application;

[0020] Figure 3 is a structural inside view of the piston assembly of the present application;

[0021] Figure 4 is a structural view of the wire arranging assembly connecting with the wire assembly of the present application;

[0022] Figure 5 is a sectional view of the wire arranging assembly of the present application.

[0023] In the figure: 1, extruder; 2, fixed die set; 3, wire; 4, motor assembly; 5, rotating assembly; 51, rotating shaft; 52, rotating disc; 53, rotating block; 6, piston assembly; 61, piston cylinder; 62, piston body; 63, transmission rod; 7, water collecting pool; 8, wire arranging assembly; 81, wire arranging plate; 82, wire arranging hole; 83, air blowing channel; 9, water containing assembly; 91, water containing box; 92, water flowing head; 10, water flowing out pipe; 11, water flowing in pipe; 12, water tank; 13, feeding port. DETAILED DESCRIPTION

[0024] The technical solutions in the embodiments of the present application will be described clearly and completely below with reference to the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments of the present application. Based on the embodiments in the present application, all the other embodiments obtained by those skilled in the art without any creative work fall within the scope of protection of the present application.

[0025] Embodiment one

[0026] Please refer to Figure 1The utility model provides an ABS material processing granulator, including extruder 1, the top of extruder 1 is equipped with the feed port 13 of injection melt material, the end of extruder 1 is connected with fixed mould group 2, the surface of fixed mould group 2 is equipped with the model hole of extruded wire 3, the side of fixed mould group 2 away from extruder 1 is equipped with water tank 12, the side of water tank 12 is equipped with motor assembly 4, motor assembly 4 is driven with the rotation assembly 5 in the inside of water tank 12 through belt, water collecting tank 7 is equipped between fixed mould group 2 and water tank 12, the both sides of water collecting tank 7 are equipped with piston assembly 6 respectively, the model hole on the surface of fixed mould group 2 is equipped with water containing assembly 9 above, water containing assembly 9 includes the water containing box 91 of water storage, the bottom end of water containing box 91 is communicated with the water head 92 obliquely towards the top of wire 3 at equal distance, the surface of wire 3 is directly filled with cooling water through water head 92, and then wire 3 is cooled in the instant of being extruded, so that the surface of wire 3 is quickly cooled and formed, the cooling efficiency of wire 3 is improved, and the surface of wire 3 is quickly cooled, which facilitates the subsequent wire arrangement process of wire 3, makes wire 3 more neat, and then facilitates the cleaning of the surface cooling water of wire 3 when wire 3 leaves the inside of water tank 12 after being cooled, avoids the situation that cooling water still adheres due to the mutual close adhesion of wire 3, and then causes the granulating process to be influenced, therefore, the neatness of multiple wires 3 during granulating is improved by multiple wire arrangement of wire 3, and the uniformity of finished product particle size is ensured.

[0027] Please refer to Figure 2 Rotation assembly 5 includes rotation shaft 51 in the inside of water tank 12 for assisting wire arrangement 3, the end of rotation shaft 51 that stretches out water tank 12 is connected with turntable 52, the outer side of the circle surface of turntable 52 is connected with rotation block 53 that rotates along with turntable 52, the outer side of rotation shaft 51 is equidistantly provided with annular groove same as the position of wire 3, which facilitates the wire arrangement process of wire 3 by rotation shaft 51, and the direction of rotation of rotation shaft 51 makes the arc surface of rotation shaft 51 that contacts the outer side of wire 3 along the moving direction of wire 3, the outer side of rotation shaft 51 and the outer wall of water tank 12 are slidingly sealed, so that the part of arc surface of rotation shaft 51 that does not contact the outer side of wire 3 during rotation can drive the cooling water in the inside of water tank 12 to flow against the moving direction of wire 3, increase the flow rate of water body, improve the cooling efficiency of wire 3, further reduce the required setting length of water tank 12, and then make wire 3 more neat during wire arrangement in the inside of water tank 12.

[0028] Please refer to Figure 3, the piston assembly 6 comprises a piston cylinder 61, the inner side of the piston cylinder 61 is slidably connected with a piston body 62, the end of the piston body 62 extends to the direction of the rotating assembly 5 and is hingedly connected with a transmission rod 63, the end of the transmission rod 63 away from the piston body 62 is sleeved on the outer side of the rotating block 53, the piston body 62 is a piston with a cross section shape of a "T" letter, and the inner side of the piston cylinder 61 is divided into two areas by the piston head of the piston body 62, the two areas in the piston cylinder 61 are both communicated with the outflow pipe 10, the two areas in the piston cylinder 61 are both communicated with the inflow pipe 11, one of the piston assemblies 6 is located at one side of the water collecting pool 7, the outflow pipe 10 communicated with the outer side of the one of the piston assemblies 6 and away from the one of the piston assemblies 6 is communicated with the inner side of the water storage box 91, and the inflow pipe 11 communicated with the outer side of the one of the piston assemblies 6 and away from the one of the piston assemblies 6 is communicated with the inner side of the water tank 12, the outflow pipe 10 is a one-way water pipeline from the inner side of the piston cylinder 61 to the inner side of the water storage box 91, and the inflow pipe 11 is a one-way water pipeline from the inner side of the water tank 12 to the inner side of the piston cylinder 61, through the arrangement of the one of the piston assemblies 6, in the rotation of the rotating shaft 51, the rotating shaft 51 drives the rotating disc 52 to rotate, the rotating block 53 rotates around the rotating shaft 51 on the surface of the rotating disc 52, the rotating block 53 drives the transmission rod 63 to move, the transmission rod 63 drives the piston body 62 to reciprocate in the inner side of the piston cylinder 61, the two areas in the inner side of the piston cylinder 61 are continuously expanded and reduced, the area expanded in the inner side of the piston cylinder 61 sucks cooling water from the inner side of the water tank 12 through the inflow pipe 11, and the area reduced in the inner side of the piston cylinder 61 extrudes cooling water to the inner side of the water storage box 91 through the outflow pipe 10, and then the cooling water flows out through the water flowing head 92, so that the cooling water continuously flows from the water flowing head 92 to the surface of the wire 3, and the pre-cooling process of the wire 3 is carried out, and the wire arranging process of the rotating shaft 51 to the wire 3 is carried out.

[0029] Embodiment Two

[0030] Embodiment Two relies on Embodiment One, please refer to Figure 4 and Figure 5, the top end of the water collecting pool 7 is provided with a wire arranging assembly 8, the wire arranging assembly 8 comprises a wire arranging plate 81, the wire arranging plate 81 has a cavity for storing air inside, the surface of the wire arranging plate 81 is provided with wire arranging holes 82 equidistantly, the inner side of the wire arranging hole 82 is provided with air blowing channels 83 equiangularly and circumferentially, the wire 3 is extruded by the model hole of the fixing module 2 and then passes through the middle part of the wire arranging hole 82, one piston assembly 6 is located at the other side of the water collecting pool 7, the outflow pipe 10 connected to the outer side of the piston assembly 6 is communicated with the inner side cavity of the wire arranging plate 81, and the inflow pipe 11 connected to the outer side of the piston assembly 6 is communicated with the outer environment, the inflow pipe 11 is a one-way air passage from the inside of the piston cylinder 61 to the inner side of the wire arranging plate 81, and the inflow pipe 11 is a one-way air passage from the outer environment to the inside of the piston cylinder 61, the end of the inflow pipe 11 located in the water tank 12 is below the liquid level of the cooling water, the wire 3 directly passes through the middle part of the wire arranging hole 82, so that all the wire arranging holes 82 on the surface of the wire arranging plate 81 arrange the wire 3 before entering the water tank 12, and the neatness of the wire 3 is enhanced, at the same time, the air blowing channels 83 blow air to the outer side of the wire 3 directly in the circumferential direction of the wire arranging hole 82, and then the air flow acts on the outer side of the wire 3, so that the outer side of the wire 3 does not contact the inner wall of the wire arranging hole 82, and the wear between the wire 3 and the inner wall of the wire arranging hole 82 is avoided.

[0031] Please refer to Figure 1 , the outer side of the water collecting pool 7 is connected with a water drain valve, so that the water level in the water collecting pool 7 is kept constant, and the water in the water collecting pool 7 is prevented from being too much, the outer side of the water collecting pool 7 is connected with a water outlet pipe located outside the pressure relief valve, the water level control reduces the amount of water in the water collecting pool 7 splashing out of the water collecting pool 7 when the water is collected, and the influence of the water collected in the water collecting pool 7 on the extrusion process of the wire 3 is reduced.

[0032] Please refer to Figure 5 , the air blowing channel 83 is a cylinder inclined to the direction of the end part close to the wire arranging hole 82 and moving to the wire 3, after the cooling water flows out of the surface of the wire 3 by the water flow head 92, the water film formed on the surface of the wire 3 will pass through the space between the wire arranging holes 82 together with the wire 3, the air flow blown by the air blowing channel 83 to the moving direction of the wire 3 breaks the water film on the surface of the wire 3, at the same time, due to the blowing direction of the air blowing channel 83, the position where the water film is broken is located at the side of the wire arranging plate 81 close to the water tank 12, and then the water flow flows downward through the side of the wire arranging plate 81 close to the water tank 12, so that the water collecting pool 7 collects the water that has cooled the wire 3, the water that has exchanged heat with the wire 3 is prevented from entering the inner side of the water tank 12, and the heat exchange efficiency of the water in the water tank 12 on the wire 3 is ensured.

[0033] Please refer to Figure 3The piston body 62 is in sliding connection with the inner wall of the piston cylinder 61, and the piston body 62 is in sliding connection with the inner wall of the piston cylinder 61. When the piston body 62 slides relative to the inner side of the piston cylinder 61, the piston body 62 compresses and expands the two chamber regions on the inner side of the piston cylinder 61, so that the inner side of the piston cylinder 61 is convenient for water absorption and air absorption. In turn, the water outlet head 92 flows out of the water and the air blowing hole 83 blows out of the air, which helps the cooling process of the wire 3, so as to facilitate the wire arrangement process of the wire 3, improve the wire arrangement neatness of the wire 3, and facilitate the cutting process of the wire 3 after the wire surface is water-removed.

[0034] Please refer to Figure 2 and Figure 5 The axis direction of the water outlet head 92 is the same as the axis direction of the wire 3 after being extruded out of the fixed die group 2 and moving to the water tank 12, and after the water outlet head 92 flows out of the cooling water to the top end of the wire 3, the cooling water forms a water film on the surface of the wire 3. The part of the wire arrangement plate 81 that is penetrated by the wire 3 is perpendicular to the axis of the wire 3, so that the circumferential air blowing hole 83 blows air uniformly to the outside of the wire 3 that penetrates the wire arrangement hole 82, and the diameter of the wire 3 and the water film is smaller than the diameter of the wire arrangement hole 82. The wire 3 and the water film pass through the middle part of the wire arrangement hole 82 at the same time, the axis of the wire 3 is perpendicular to the part of the surface of the wire arrangement plate 81 that is provided with the wire arrangement hole 82, the inner wall of the wire arrangement hole 82 is the same as the circumferential spacing of the outer side of the wire 3, and the air blowing process of the air blowing hole 83 to the outer side of the wire 3 is facilitated. Through the blowing direction of the air blowing hole 83, the wire 3 is subjected to the blowing force towards the moving direction, which facilitates the extrusion process of the wire 3, and makes the wire 3 tight after being extruded, reduces the bending part of the wire 3 due to its own gravity, and facilitates the neatness of the wire arrangement of the wire 3.

[0035] The use method (working principle) of the application is as follows:

[0036] Wire 3 from the fixed mold group 2 side edge of the model hole after extrusion through the middle of the line hole 82 to the inner side of the sink 12, in the process of wire 3, the motor assembly 4 will drive the rotating assembly 5 rotation, rotating shaft 51 drive rotating disc 52 and rotating block 53 rotation, rotating block 53 rotation through the transmission rod 63 drive piston body 62 relative to the inner side of the piston cylinder 61 sliding, make piston body 62 reciprocating push two areas inside the piston cylinder 61 expansion and shrinkage, make one area inside the piston cylinder 61 through the inflow pipe 11 from the inner side of the sink 12 suction cooling water, at the same time make another area inside the piston cylinder 61 through the outflow pipe 10 to the inner side of the water group 9 into cooling water, in turn make cooling water through the water head 92 to the top of the wire 3, make cooling water on the surface of the wire 3 can form the flowing water film, make the wire 3 extruded moment direct water cooling process, and when the wire 3 moves to the outer side of the line hole 82 between, namely the inner side of another side of a piston assembly 6, make another area inside the piston cylinder 61 through the inflow pipe 11 from the outside to the inside suction cold air, at the same time make another area inside the piston cylinder 61 through the outflow pipe 10 to the inner cavity of the line plate 81 blow cold air, in turn make cold air through the air blowing way 83 to the outside of the wire 3, make the airflow destroy the water film on the surface of the wire 3, make the initial cooling wire 3 water directly from the outside of the wire 3 to the inner side of the water collecting pool 7, make the water collecting pool 7 collect the initial cooling heat exchange water of the wire 3, and the gas blown by the air blowing way 83 will blow to the surface of the wire 3 after breaking the water film on the surface of the wire 3, make the surface of the wire 3 wind cooling process, in turn make the remaining cooling water on the surface of the wire 3 and the cold air blown to the surface of the wire 3 wind cooling and water cooling process at the same time, and through the line hole 82 on the surface of the line plate 81 can line the wire 3 extruded at the same time, keep the effective spacing of the wire 3, make the wire 3 line more neat, and the wire 3 is extruded and continues to move, because the wire 3 has been initially pre-cooled, the surface of the wire 3 is relatively stable, in turn make the wire 3 enter the inner side of the sink 12 after the lower part of a rotating assembly 5, make the part of the rotating shaft 51 not contact with the outer side of the wire 3 in the moment of rotation, push the cooling water in the sink 12 flow in the opposite direction of the wire 3, make the water flow move quickly on the outer surface of the wire 3, enhance the cooling effect, finally the wire 3 will move out of the inner side of the sink 12 and be cut into particles.

Claims

1. An ABS material processing granulator, comprising an extruder (1), wherein an inlet (13) for injecting molten material is provided above the extruder (1), a fixed module (2) is connected to the end of the extruder (1), a mold hole for extruding wire (3) is provided on the surface of the fixed module (2), and a water tank (12) is provided on the side of the fixed module (2) away from the extruder (1), characterized in that, The side of the water tank (12) is provided with a motor assembly (4), and the motor assembly (4) is driven by a belt to a rotating assembly (5) located inside the water tank (12). A water collection pool (7) is provided between the fixed module (2) and the water tank (12). Piston assemblies (6) are provided on both sides of the water collection pool (7). A water holding assembly (9) is provided above the model hole on the surface of the fixed module (2). The rotating assembly (5) includes a rotating shaft (51) for the auxiliary wiring (3) inside the water tank (12). The end of the rotating shaft (51) extending out of the water tank (12) is connected to a turntable (52). The outer side of the round surface of the turntable (52) is connected to a rotating block (53) that rotates with the turntable (52). The piston assembly (6) includes a piston cylinder (61), with a piston body (62) slidably connected to the inner side of the piston cylinder (61). The end of the piston body (62) extends toward the rotating assembly (5) and is hinged to a transmission rod (63). The end of the transmission rod (63) away from the piston body (62) is sleeved on the outside of the rotating block (53). The piston body (62) is a piston with a "T" shaped cross-section. The inner side of the piston cylinder (61) is divided into two regions by the piston head of the piston body (62). Both regions inside the piston cylinder (61) are connected to an outflow pipe (10), and both regions inside the piston cylinder (61) are connected to an inflow pipe (11). The water holding assembly (9) includes a water storage... A water container (91) has water heads (92) that are equidistantly connected to the bottom of the water container (91) and are inclined towards the top of the wire (3). A piston assembly (6) is located on one side of the water collection pool (7). The outlet pipe (10) connected to the outside of the piston assembly (6) is connected to the inside of the water container (91) at one end away from the piston assembly (6), and the inlet pipe (11) connected to the outside of the piston assembly (6) is connected to the inside of the water tank (12) at one end away from the piston assembly (6). The outlet pipe (10) is a pipe that unidirectionally flows water from the inside of the piston cylinder (61) to the inside of the water container (91), and the inlet pipe (11) is a pipe that unidirectionally flows water from the inside of the water tank (12) to the inside of the piston cylinder (61). The top of the water collection tank (7) is provided with a cable assembly (8), which includes a cable plate (81). The cable plate (81) has an air storage chamber inside. Cable holes (82) are evenly spaced on the surface of the cable plate (81). Air blowing channels (83) are opened at equal angles on the inner side of the cable holes (82) to connect the inner chamber and the outer side of the cable plate (81). The wire (3) is squeezed out by the model hole of the fixing module (2) and passes through the middle of the cable hole (82). The cable located in the water collection tank (7) On the other side, a piston assembly (6) has an outflow pipe (10) connected to the outside of the piston assembly (6) with one end away from the piston assembly (6) connected to the inner chamber of the wiring plate (81), and an inflow pipe (11) connected to the outside of the piston assembly (6) with one end away from the piston assembly (6) connected to the external environment. The inflow pipe (11) is a pipe that allows one-way airflow from the inside of the piston cylinder (61) to the inside of the wiring plate (81), and the inflow pipe (11) is a pipe that allows one-way airflow from the external environment to the inside of the piston cylinder (61).

2. The ABS material processing granulator according to claim 1, characterized in that, A drain valve is connected to the outside of the water collection tank (7) to maintain a constant water level inside the water collection tank (7).

3. The ABS material processing granulator according to claim 1, characterized in that, The air blowing channel (83) is a cylindrical shape that is inclined in the direction of the wire (3) near the end of the cable hole (82).

4. The ABS material processing granulator according to claim 1, characterized in that, The piston body (62) and the inner wall of the piston cylinder (61) are partially slidably sealed.

5. The ABS material processing granulator according to claim 1, characterized in that, The end of the inlet pipe (11) located inside the water tank (12) is below the surface of the cooling water.

6. The ABS material processing granulator according to claim 1, characterized in that, The direction of the axis of the water flow head (92) is the same as the direction of the axis of the section of the wire (3) that moves towards the water tank (12) after being extruded from the fixed module (2). After the water flow head (92) flows out cooling water to the top of the wire (3), the cooling water forms a water film on the surface of the wire (3).

7. The ABS material processing granulator according to claim 1, characterized in that, The plane of the portion of the cable board (81) through which the wire (3) passes is perpendicular to the axis of this portion of the wire (3), so that the circumferential air channel (83) blows air evenly to the outside of the wire (3) passing through the cable hole (82).

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