SUMMERY OF THE UTILITY MODEL
An object of the utility model is to provide a feeding guider of cable sheathing extruder to the solution that proposes among the above-mentioned background art is collected the finished product better and is got into the extruder with the help material better inside, whole extrusion work's problem with higher speed.
In order to achieve the above object, the utility model provides a following technical scheme: a feeding guide device of a cable sheath extruder comprises a machine body and an exhaust port, wherein a hopper is connected to the upper end of the middle part of the machine body, the exhaust port is distributed on one side of the hopper, a heating and cooling zone is distributed on one side of the exhaust port, a pushing shaft is closely arranged on the inner side of the heating and cooling zone, one end of the pushing shaft is connected with a large rotating wheel, a pushing connecting boss is arranged at one end of the machine body, a discharging pipe is distributed on the lower end of the pushing connecting boss, a clamping pipe is closely attached to one end of the discharging pipe, which is far away from the machine body, a connecting head is connected to one end of the connecting head, a cable wire is connected to the inner side of the connecting head, a connecting lead-out head is connected to one side of the connecting head, a lead-out pipe is arranged in the middle part of the connecting, organism front end lower part one side is provided with the storing district, and the inside second delivery pipe that is provided with in storing district, the inboard one end of hopper is provided with direction (mixing) shaft.
Preferably, the guiding stirring shafts are distributed in an L shape and are mutually attached along the inner wall of the hopper.
Preferably, the wire inlet head is communicated with the connection leading-out head through a connector, and the wire inlet head and the connection leading-out head are vertically distributed.
Preferably, the connector, the sleeve coil and the delivery pipe are distributed in a circle center shape, and the inner side of the connector is matched with the sleeve coil in size.
Preferably, the wire clamp is connected with the cable conductor through a winding shaft, the cable conductor is distributed along the tangent of the winding shaft, and the cable conductor and the wire clamp form a buckle detachable structure with the winding shaft.
Preferably, the pushing shaft, the large rotating wheel and the delivery pipe are distributed in a circle center shape, and the pushing shaft, the large rotating wheel and the delivery pipe are distributed in a horizontal shape.
Compared with the prior art, the beneficial effects of the utility model are that: the guide stirring shafts are distributed in an L shape and are mutually attached along the inner wall of the hopper, the guide effect of the guide stirring shafts is enhanced due to the L-shaped distribution and the attachment of the inner wall, and meanwhile, the materials are pushed by the pushing shaft in an extruding manner, so that the materials can better pass through the pushing shaft and a corresponding working area, and can be better and faster processed;
the wire inlet head is communicated with the connecting lead-out head through the connector, and the wire inlet head and the connecting lead-out head are vertically distributed, so that the materials are not interfered in the vertical distribution and communication state, the conditions for providing finished products can be better output, the materials with high heat can be attached to a cable line directly before cooling, and the production efficiency is accelerated;
the connector is distributed with the sleeve coil and the delivery pipe in a circle center shape, the inner side of the connector is matched with the sleeve coil in size, materials can be cooled into finished products gradually when being output due to the arrangement, a cable in the circle center of the sleeve coil is arranged, the materials can be automatically condensed due to the advancing thrust of the materials after the sleeve coil, gaps influenced by the sleeve coil are supplemented, and conditions are provided for directly using the finished products.
Detailed Description
The technical solutions in the embodiments of the present invention will be described clearly and completely with reference to the accompanying drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments in the present invention, all other embodiments obtained by a person skilled in the art without creative work belong to the protection scope of the present invention.
Referring to fig. 1-3, the present invention provides a technical solution: a feeding guide device of a cable sheath extruder comprises a machine body 1, a hopper 2, an exhaust port 3, a heating and cooling belt 4, a large rotating wheel 5, a pushing shaft 6, a connector 7, a delivery pipe 8, a winding shaft 9, a wire clamp 10, a storage area 11, a second delivery pipe 12, a connecting delivery head 13, a sleeve coil 14, a cable 15, a wire inlet head 16, a pushing connecting convex 17, a discharge pipe 18, a clamping pipe 19 and a guiding stirring shaft 20, wherein the upper end of the middle part of the machine body 1 is connected with the hopper 2, the exhaust port 3 is distributed on one side of the hopper 2, the heating and cooling belt 4 is distributed on one side of the exhaust port 3, the pushing shaft 6 is closely attached to the inner side of the heating and cooling belt 4, one end of the pushing shaft 6 is connected with the large rotating wheel 5, one end of the machine body 1 is provided with the pushing connecting convex 17, the discharge pipe 18 is distributed on the lower end of the pushing connecting convex 17, the, the upper end of the connector 7 is connected with a wire inlet head 16, the inner side of the wire inlet head 16 is connected with a cable 15, one side of the connector 7 is connected with a connecting lead-out head 13, the middle part of the connecting lead-out head 13 is provided with a lead-out pipe 8, one end of the inner side of the lead-out pipe 8 is provided with a sleeve coil 14, one end of the cable 15 is connected with a cable clamp 10, the upper end of the cable clamp 10 is adjacent to a winding shaft 9, one side of the lower part of the front end of the machine body 1 is provided with a storage area 11, a second lead-out pipe 12 is arranged inside the;
the guide stirring shafts 20 are distributed in an L shape, the guide stirring shafts 20 are mutually attached along the inner wall of the hopper 2, the guide effect of the guide stirring shafts 20 is enhanced due to the L-shaped distribution and the inner wall attachment, and meanwhile, due to extrusion pushing of the pushing shaft 6, the materials are accelerated to better pass through the pushing shaft 6 and a corresponding working area, and the materials are processed better and faster;
the wire inlet head 16 is communicated with the connection lead-out head 13 through the connector 7, the wire inlet head 16 and the connection lead-out head 13 are vertically distributed, the materials are not interfered due to the vertical distribution and the communication state, conditions for providing finished products can be better output, the materials with high heat can be attached to the cable 15 directly before cooling, and the production efficiency is accelerated;
the connector 7, the sleeve coil 14 and the delivery pipe 8 are distributed in a circle center shape, the size of the inner side of the connector 7 is matched with that of the sleeve coil 14, materials can be gradually cooled into finished products when being output due to the arrangement, the cable 15 in the circle center of the sleeve coil 14 is arranged, the materials can be automatically condensed due to the forward thrust of the materials after passing through the sleeve coil 14, and gaps influenced by the sleeve coil 14 are supplemented, so that conditions are provided for the direct use of the finished products;
the wire clamp 10 is connected with the cable 15 through the winding shaft 9, the cable 15 is distributed along the tangent of the winding shaft 9, and the cable 15, the wire clamp 10 and the winding shaft 9 form a buckle detachable structure, so that the winding shaft 9 can timely wind and collect materials processed into finished products, the time and the space for collecting the finished products are saved, and the working efficiency is accelerated;
the pushing shaft 6, the large rotating wheel 5 and the delivery pipe 8 are distributed in a circle center shape, the pushing shaft 6, the large rotating wheel 5 and the delivery pipe 8 are distributed in a horizontal shape, and the horizontal distribution and the circle center shape distribution enable the grinding, crushing and heating of the processing materials to be liquid so that the processing of the processing materials into finished products can be carried out continuously, so that each working step can be carried out orderly, and the efficiency of the whole work is improved.
The working principle is as follows: to the feeding guider of this type of cable sheath extruder at first with cable conductor 15 pass the incoming line head 16 on the connector 7, cable conductor 15 passes through connector 7 and connects eduction head 13, again with cable conductor 15 according to correct orientation pass eduction tube 8 and cover coil 14, then from one section cable conductor 15 pulling that wears out of eduction tube 8 to winding axle 9 on, press from both sides cable conductor 15 on winding axle 9 through wire clamp 10, then place the material in the hopper 2 on the organism 1. The material is pressed, stirred and guided by the guide stirring shaft 20, so that the material enters the pushing shaft 6 driven by the large rotating wheel 5, the pushing shaft 6 extrudes the material into powder and transmits the powder to the exhaust port 3 through the self-rotation of the pushing shaft 6, redundant air is discharged out of the machine body 1, the material reaches the heating and cooling zone 4 and is heated and melted, the material conveyed forwards continuously enters the connector 7 through the tightly connected pushing connecting convex 17, the discharging pipe 18 and the clamping pipe 19 in a liquid state, the liquid high-temperature material enters the delivery pipe 8, the sleeve coil 14 is arranged at one section of only one side of the delivery pipe 8 at the moment, the material on the cable 15 can be automatically attached and has no gap when being cooled in the production process, so that the cable 15 is ensured to be always positioned in the middle of the material, and the winding shaft 9 needs to slowly spin at the moment, at this time, the cooled material and the cable 15 are pulled out from the outlet of the delivery pipe 8, the finished cable is manufactured, in order to meet more sizes, the second delivery pipe 12 and the delivery pipe 8 which are different from the delivery pipe 8 in caliber and size in the storage area 11 prepared in advance are replaced, cables with different requirements are manufactured by replacing the cable 15 with different size radiuses, and different material requirements can be realized by replacing the types of the material.
Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that changes, modifications, substitutions and alterations can be made in these embodiments without departing from the principles and spirit of the invention, the scope of which is defined in the appended claims and their equivalents.